Serverless Functions Made Simple for Docker and Kubernetes
The mission of OpenFaaS ® is to Make Serverless Functions Simple. It can be run on any cloud through the use of portable Docker containers without the fear of getting locked-in or having to manage complex infrastructure.
The project follows a UNIX-like design and has a composable architecture meaning that OpenFaaS can run on Kubernetes, Docker Swarm and many other platforms using the same UI, CLI and ecosystem. We let the container orchestrator do the heavy lifting meaning you get a highly scalable, fault-tolerant and event-driven platform for your applications.
You can deploy your existing microservices to OpenFaaS or package any code or binary as a Serverless Function using the wide range of templates we have made available. So whether you want to use: Go, Java, Python, C#, Ruby - Express.js, Django, ASP.NET Core or even binaries like ffmpeg, ImageMagick or anything else we have you covered.
Testing out OpenFaaS only takes 60 seconds. From there you can deploy one of the many pre-built community functions from the function store, or build your own using the faas-cli. Learn everything you need to know with our tried-and-tested hands-on labs in the OpenFaaS workshop
See who's solving real problems with OpenFaaS, read the latest blogs. Got questions or want to get connected? Join us on Slack.
New! Are you looking for an easy way to manage functions for your team? Checkout OpenFaaS Cloud which provides a multi-user Serverless experience with built-in CI/CD and integration with GitHub/GitLab.


All Classes
ActionCGame
ActionCGSettings
ActionCMenu
ActionCRules
BotP
Direction
Game
Game
GSettings
HumanP
Launch
Menu
Movement
Pawn
PawnType
Player
PlayerMode
Rules
Square
SymbolSquare
UIMode
WindowC
ZenInitie


This is a basic fixed menu template using fixed size containers.
A text container is used for the main container, which is useful for single column layouts


Total Insects
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Total Insect Information
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Total Transactions
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UI Devs/HTML + CSS
The devs in this group were responsible for making the beautiful home + about pages for The Weight Lifting Journal. Marketing pages are often the first thing a perosn sees when they go to a new website or online service so its important everyhting is neat and organized for visiters. The names of the devs as well as their GitHub handles are below!
- Vincent Pagano @vpagano10
- Courtland Bourgeois @Courtland-Bourgeois


| I l@ve RuBoard |
The class pair is provided to treat two values as a single unit. It is used in several places within the C++ standard library. In particular, the container classes map and multimap use pairs to manage their elements, which are key/value pairs (See Section 6.6). Another example of the usage of pairs is functions that return two values.
The structure pair is defined in <utility> as follows:
namespace std { template <class T1, class T2> struct pair { //type names for the values typedef T1 first_type; typedef T2 second_type; //member T1 first; T2 second; /* default constructor * - T1 () and T2 () force initialization for built-in types */ pair() : first(T1()), second(T2()) { } //constructor for two values pair(const T1& a, const T2& b) : first(a), second(b) { } //copy constructor with implicit conversions template<class U, class V> pair(const pair<U,V>& p) : first(p.first), second(p.second) { } }; //comparisons template <class T1, class T2> bool operator== (const pair<T1,T2>&, const pair<T1,T2>&); template <class T1, class T2> bool operator< (const pair<T1,T2>&, const pair<T1,T2>&); ... //similar: !=, <=, >, >= //convenience function to create a pair template <class T1, class T2> pair<T1,T2> make_pair (const T1&, const T2&); }
Note that the type is declared as struct instead of class so that all members are public. Thus, for any value pair, direct access to the individual values is possible.
The default constructor creates a value pair with values that are initialized by the default constructor of their type. Because of language rules, an explicit call of a default constructor also initializes fundamental data types such as int. Thus, the declaration
std::pair<int,float> p; //initialize p. first and p.second with zero
initializes the values of p by using int() and float(), which yield zero in both cases. See page 14 for a description of the rules for explicit initialization for fundamental types.
The template version of a copy constructor provided here is used when implicit type conversions are necessary. If an object of type pair gets copied, the normal implicitly generated default copy constructor is called.[2] For example:
[2] A template constructor does not hide the implicitly generated default constructor. See page 13 doe more details about this topic.
void f(std::pair<int,const char*>); void g(std::pair<const int.std::string>); ... void foo { std::pair<int,const char*> p(42,"hello"); f(p); //OK: calls built-in default copy constructor g(p); //OK: calls template constructor }
For the comparison of two pairs, the C++ standard library provides the usual comparison operators. Two value pairs are equal if both values are equal:
namespace std { template <class T1, class T2> bool operator== (const pair<T1,T2>& x, const pair<T1,T2>& y) { return x.first == y.first && x.second == y.second; } }
In a comparison of pairs, the first value has higher priority. Thus, if the first values of two pairs differ, the result of their comparison is used as the result of the comparison of the whole pairs. If the first values are equal, the comparison of the second values yields the result:
namespace std { template <class T1, class T2> bool operator< (const pair<T1,T2>& x, const pair<T1,T2>& y) { return x.first < y.first || (!(y.first < x.first) && x.second < y.second); } }
The other comparison operators are defined accordingly.
| I l@ve RuBoard |


chagers
Making Positivity Happen
Or in Ella Fitzgerald's words: Ac-Cent-Tchu-Ate The Positive
05.24.15
Today I'll be continuing the conversation a bit on stereotype threat (see last week's post), and talking about how values we hold may influence the possibility of this threat in some way. First, let's talk about values.
When I've been most proud, happy, satisfied, etc., I've found some of the following values come to mind:
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These are just a few examples of the variety of values and emotions that I can feel when happiest.
On a scale of 1 through 5, 1 being Disagree and 5 being Agree, I would say that absolutely 5 out of 5 I try and live up to these values. It may get hard when the going gets tough, but when that happens I find it helpful to take myself out of the moment and look at my life as if from a third person perspective. It helps to take a look at everything as a whole when so often it's easy to get caught up in the minutiae of the moment.
One of these values that takes on a bigger role in my life would be personal development. While this value isn't necessarily the most important value, I feel it holds all other values within it. Part of personal development is taking and learning from those other values and adding it to the self as a whole, increasing satisfaction in life.
I've got a friend who seems to find the negative in just about anything and it's been a real challenge trying to reiterate to them that their life is actually amazing and they just need to remember the good stuff! Part of personal development is taking the values you hold dear and remembering that you actually do hold them dear. Remember what makes you happy and focus on that every now and again. I promise it will do wonders! Yes, I know it can be easier said than done sometimes, but that's why you just have to at least try to think positive. Even if for only 5 minutes a day - it'll at least start you down the path of positivity and personal development in the direction you want.
Thinking about the values that you hold dearest will absolutely help with combating stereotype threat. Instead of focusing on the perceived threat, just focus on the self and what gets you through the day and happy. Sometimes it can be hard not to think about the perception others may have of you when you're in a stressful situation, but maybe if you just take a minute, close your eyes, and think about what you're doing, why you're in the situation, and looking at it as if from a third person perspective, you may be able to refocus your mind and complete the task at hand more successfully than you thought.
It's all about perspective, and sometimes it's very easy to lose that. Especially when you're putting yourself out there and learning an entirely new subject - like right now for me at Dev Bootcamp. I've had days where I completely lose perspective of why I'm here because I'm so caught up in frustration with a particular concept or challenge. Taking a step back and reflecting on how far I've come, and remembering why I'm here has helped immensely. Yeah, it may be hard to step back at times, but when I do I feel all the better for it. Staying positive can be so hard sometimes, but even if you take a few minutes out of your day to sit back and remember the positive things in your life you'll feel better and perform better because of it. I'm sure of it!
If you're having trouble accentuating the positive, take a queue from Ella Fitzgerald's song!


After finalize the analysis of the selected contain, Plagium Alert software let you save the result. On this way, you will have the possibility of analyze it and lately open it and check it without make another analysis. The results, that have been saved, will be stored in a .pga extension document.
When the document is saved, the software let you establish, as an option, the characteristics of the file (about the analyzed contain) as name, surname and identifier number of the author, title, subject, month and year; this is the way to personalize the obtained results and get a higher control about the realized analysis. These fields are defined as an option. If these fields are filled in, they will appear in the top of the "Advanced results".
At any moment of the program execution, any document, previously saved, can be opened.


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{% else %}
Unknown Last Release
{% endif %}
Files are up to date
{% else %}
Files are out of date
{% endif %}
No recent jobs
{% else %} {% if last_job['job_type'] == 'cycle_service' %} {% if last_job['status'] == 'complete' %}
The last cycle job succeeded
{% elif last_job['status'] == 'failed' %}
The last cycle job failed
{% endif %} {% elif last_job['job_type'] == 'build_new_package' %} {% if last_job['status'] == 'complete' %}
The last build new package
job succeeded
{% elif last_job['status'] == 'failed' %}The last release service
job failed
{% endif %} {% elif last_job['job_type'] == 'release_service' %} {% if last_job['status'] == 'complete' %}The last release service
job succeeded
{% elif last_job['status'] == 'failed' %}The last release service
job failed
{% endif %} {% endif %} {% endif %}


---
layout: post
title: ToxoDB 45 Released
category: [ToxoDB]
---
We are pleased to announce the release of ToxoDB 45
Release 45 Webinar
Join us on September 11, 2019 at 10:00 am (EST) for our Release 45 Highlights webinar where we will discuss and
demonstrate new features and data available in release 45 of EuPathDB sites.
Register here
Tachyzoite non-coding RNA (ME49) — T. gondii ME49 ncRNA Illumina sequences aligned to the ME49 Genome. Beiting, Diaz-Miranda, Gregory, Roos and Zheng.
New features in ToxoDB 45
All EuPathDB sites now offer the JBrowse Genome Browser. GBrowse will be phased out in coming releases. Please
Contact Us with comments and suggestions for the genome browser.
The new RNASeq Transcript Summary tool on gene pages helps reveal experiments in which the gene is highly
regulated. The tool displays the gene's FPKM values for all experiments in ToxoDB and offers features such as
log/linear scaling, zoom and pan to explore the gene's expression in each experiment.


I am an experienced salvia smoker and have enjoyed its effects for a few years. I have used 60x salvia extract, LSD, Shrooms, and DxM and this past spring break I was very confident that I had total control over salvia. I was wrong.
Some friends and I had just woken up the morning after we had all tried exstacy for the first time. I had also been using cocaine and through all the not eating and not sleeping and binge drug using I was probably fairly low on seratonin. Well I pulled out some salvia (20x) that Iíd had for a while and packed a bowl. I sat down in a folding chair by the fire where about 13 of my friends had gathered and took the biggest salvia hit Iíve ever taken, I was especially eager to get some sort of giggly normal salvia high because I was so low in spirits due to all of the cocaine and exstacy use. Exhaling was the last thing I remember and suddenly it felt as though some higher being had reached through some realm in a different reality and ripped me out of reality as we know it.
 My whole body at once felt like it was being pulled through a cheese grater and I was completely convinced that everything that was happening was real. I wanted to cry but I couldnít and I had already forgotten I'd even smoked salvia. I felt as though I was part of some huge machine of life and was part of a rubix cube of reality, suddenly I felt half of my body split in half and completely believed that I was watching as half of my body was ripped away on part of this huge turning rubix cube making up the universe. I believed that my life was over and I would be stuck between realities forever. The sensation of being ripped in half happened because, as I later heard from my friends watching, after exhaling my eyes just rolled into the back of my head, my mouth dropped open, I became very stiff and fell straight backwards in the chair.
At this point in my trip I felt a flattening sensation and had the complete visual and physical feeling of being drug just under the reality my friends were in and every now and then I would catch a glimpse of my friend's face as he watched over me and gently coaxed me into coming back. My desire to be able to cross back into our world was the most intense longing desire Iíve ever felt. I eventually came to on the ground and immediately once I could move again I slipped away to be alone for a while. I was very embarrased and shaken. It was the most intense and terrifying experience of my life, no shroom or acid trip has ever seemed as real as this was. I was completely unprepared for the experience and will never again take life for granted because of it.
Experience Reports are the writings and opinions of the individual authors who submit them.
Some of the activities described are dangerous and/or illegal and none are recommended by Erowid.


Some information on the password protection of notes:
- DO NOT USE a password you have used elsewhere, there is NO guarantee that the password cannot be discovered
- Notes are not encrypted, just password protected to stop casual user access
- You can not password protect a blank note and deleting all text from a note will also remove the password
- Anyone who has access to the files on the server would be able to read the note if they wanted to
- The password protection is only intended to give a very simple level of security
- Want to store a secure note? Keep it somewhere else
- NEVER store anything confidential in any note


MON_GET_CONNECTION()
table function. This table function retrieves information for all connections currently present in the database. This information can be used to check the health of all applications.
Some important monitor elements that can tell the application behavior can be TOTAL_CPU_TIME per request, TOTAL_WAIT_TIME %, TOTAL_COMMITS, ROWS READ, ROWS MODIFIED
etc.
In general, you may not be interested in all the information returned by this table function. So you can write your SQL query in such a manner that it returns only selective information. One such possible query is as follows:
SELECT APPLICATION_HANDLE, APPLICATION_NAME, TOTAL_CPU_TIME, TOTAL_ACT_TIME, ACT_COMPLETED_TOTAL, TOTAL_WAIT_TIME, CLIENT_IDLE_WAIT_TIME FROM TABLE(MON_GET_CONNECTION(NULL, -1)) as t;


{{ article.content }}
Want comments on your site?
Remarkbox — is a free SaaS comment service which embeds into your pages to keep the conversation in the same place as your contentr. It works everywhere, even static HTML sites like this one!{% include "modules/remarkbox.html" %} {% include "modules/disqus.html" %}


Thesis projects (Master of Science and PhD projects)
Morten Hjorth-Jensen [1, 2]
[1] Department of Physics and Astronomy and National Superconducting Cyclotron Laboratory, Michigan State University
[2] Department of Physics, University of Oslo
Master of Science and PhD thesis projects
Thesis project for John Bower
- LaTeX PDF:
- For printing:
- For screen viewing:
- HTML:
- iPython notebook:


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BrawlCrate v0.40a
Wii File Editor
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Public Member Functions | |
| virtual void | Dispose () |
Static Public Member Functions | |
| static FileMap | FromFile (string path) |
| static FileMap | FromFile (string path, FileMapProtect prot) |
| static FileMap | FromFile (string path, FileMapProtect prot, int offset, int length) |
| static FileMap | FromFile (string path, FileMapProtect prot, int offset, int length, FileOptions options) |
| static FileMap | FromTempFile (int length) |
| static FileMap | FromTempFile (int length, out string path) |
| static FileMap | FromStream (FileStream stream) |
| static FileMap | FromStream (FileStream stream, FileMapProtect prot) |
| static FileMap | FromStream (FileStream stream, FileMapProtect prot, int offset, int length) |
| static FileMap | FromStreamInternal (FileStream stream, FileMapProtect prot, int offset, int length) |
Protected Attributes | |
| VoidPtr | _addr |
| int | _length |
| string | _path |
| FileStream | _baseStream |
Properties | |
| VoidPtr | Address [get] |
| int | Length [get, set] |
| string | FilePath [get] |
| FileStream | BaseStream [get] |
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inlinevirtual |
Reimplemented in BrawlLib.Internal.IO.wFileMap, and BrawlLib.Internal.IO.cFileMap.
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| Id |
Email |
Amount (₦) |
Date |
Status |
Repaid |
Tenor(months) |
Installment (₦) |
Balance (₦) |
Interest |
Repay |
| 1 |
<EMAIL_ADDRESS>|
3,500.00 |
01/03/2019 |
Approved |
false |
3 |
1,225.00 |
3,500.00 |
5% |
|
| 2 |
<EMAIL_ADDRESS>|
3,500.00 |
01/03/2019 |
Pending |
false |
3 |
1,225.00 |
3,500.00 |
5% |
|
| 3 |
<EMAIL_ADDRESS>|
3,500.00 |
01/03/2019 |
rejected |
false |
3 |
1,225.00 |
3,500.00 |
5% |
|


Project Lists
Please click on each link to view projects:
Virtual Car Garage Project
Fizz Buzz Project
Divide by Three Project
Super Heroes Project
King Search Project
Paragraph Edit Project
String in Triples Overlap Project


When it comes to Machine Learning, Artificial Neural Networks perform really well. Artificial Neural Networks are used in various classification task like image, audio, words. For Image Classification we use Convolution Neural Network. Here, we are going to build basic building block for CNN.
Convolution Neural Networks or covnets are neural networks that share their parameters. Imagine you have an image. It can be represented as a cuboid having its length, width (dimension of the image) and height (as image generally have red, green, and blue channels).
Now imagine taking a small patch of this image and running a small neural network on it, with say, k outputs and represent them vertically. Now slide that neural network across the whole image, as a result, we will get another image with different width, height, and depth. Instead of just R, G and B channels now we have more channels but lesser width and height. This operation is called Convolution. If patch size is same as that of the image it will be a regular neural network. Because of this small patch, we have fewer weights.
Now let’s talk about a bit of mathematics which is involved in the whole convolution process.
Let’s take an example by running a covnets on of image of dimension 32 x 32 x 3.
The final Convolutional Neural Network is made up of a combination of these layers,
For better understanding of CNNs and the Math behind it along eith the code, check out the jupyter notebook here.


This is configured on the TEAM Mentor 3.6 Backend.
By default TEAM Mentor uses its Xml-based User Store, however Active Directory integration is also supported. TEAM Mentor can use AD to authenticate and authorize users.
These are the steps required to set it up
Step 1: Configure web.config file
In this file which you will find in the Web Root \Web Applications\TM_Website you need to make the following changes:
In the system.web identity element:
Set the impersonate value to true, by default it is set to false,
<identity impersonate="true"></identity>
Set the authentication mode to Windows, by default it is set to None
<authentication mode="Windows"></authentication>
Your new <system.web> properties should have these values:
<system.web> ... <identity impersonate="true"></identity> <authentication mode="Windows"></authentication> ... </system.web>
In system.webServer section:
Add the this tag: <validation validateintegratedmodeconfiguration="false"></validation>
Set the modules runAllManagedModulesForAllRequest to true <modules runallmanagedmodulesforallrequest="true"></modules>
Your new <system.webserver> should have these values:
<system.webserver> ... <validation validateintegratedmodeconfiguration="false"></validation> <modules runallmanagedmodulesforallrequest="true"></modules> ... </system.webserver>
Step 2: Configure TMConfig.Config file
Open the TMConfig editor by clicking on Tbot in the Admin menu and selecting Edit TMConfig from the Admin - Config row. In the Windows Authentication section you need to Enable Windows Authentication and set the relevant security groups. By default Windows Authentication is set to false, so you will need to set the Enabled element to true and change the ReaderGroup, EditorGroup, AdminGroup values to match your Active Directory security group names. Your Windows Authentication section should look something similar to this.
Alternatively you can make the same changes in the actual TMConfig.Config xml file if necessary. This file you will find in the Library_Data\XmlDatabase\User_Data or an alternative location if you have set one. Make sure that the Active Directory groups names are correct. You can verify this information by following the instructions in Step 4: Security settings.
Your TMConfig file Windows Authentication section should look similar to the below.
<windowsauthentication> <enabled>true</enabled> <readergroup>TMREAD</readergroup> <editorgroup>TMEDIT</editorgroup> <admingroup>TMADMIN</admingroup> </windowsauthentication>
Step 3: Disabling IIS Anonymous access and Enabling Windows Authentication
Make sure you have already installed Windows Authentication in the server where you are configuring TEAM Mentor to use Active Directory. Windows Authentication can be installed from the Add Roles and Features from the Server Manager Dashboard. You can read more about how to install Windows Authentication here http://www.iis.net/configreference/system.webserver/security/authentication/windowsauthentication
This is the server roles screen that shows how to install Windows Authentication:
Once Windows Authentication has been installed, then it's necessary to enable it for the current Web site and then disable Anonymous access. In order to to that, you need to select the TEAM Mentor Web site and then select the Authentication feature from the IIS group. Make sure Anonymous access is disabled and Windows Authentication is enabled for this Web site.
Step 4: IIS Application Pool configuration
When configuring TEAM Mentor Web site in the Internet Information Services (IIS), you need to create a new Application Pool or assign it to an existing Application Pool. In any of those cases, this pool needs to be configured to always use the Microsoft .NET framework 4.0 or higher. Also the Managed pipeline mode needs to be Integrated.
Step 5: Security settings
Now that you have created the Web site, you need to assign security permissions. First you need grant the application pool identity with permissions on the Web Site. When discovering the user, you will need to use the format IIS AppPool\[Name of the Application Pool].You need to find this user at the server level and not at the domain level.
Then you need to grant the Active Directory groups with permissions in the TEAM Mentor Web application. If there is an Active Directory group called TeamMentorReader for instance, which should be used just for readers, then you need to grant this group with permissions in the TEAM Mentor site. You need to select the Web site, right click on it, and select the Edit Permissions option from the contextual menu, from there you need to enter the group name.
Make sure that the Active Directory groups have access to the TEAM Mentor Web Application by adding them to the target folder and grant them with read and write permissions.
Q: You get a 401 error when connecting to the IIS server from a remote computer, but it works locally
A: See this Microsoft KB for a workaround http://support.microsoft.com/kb/871179
Q: You get this error when running TEAM Mentor on a fresh IIS installation: "Handler'"WebServiceHandlerFactory-Integrated' has a bad module 'ManagedPipelineHandler' in its module list."
A: Try running aspnet_regiis.exe -i from the .Net 4.0 folder. See this post for more details: http://forums.iis.net/p/1149449/1869918.aspx


{% extends "_layouts/base.html" %} {% block page_title %}AppsCake by AppScale{% endblock %} {% block page_class %}Home{% endblock %} {% block content %}
AppsCake is provided by AppScale Systems, the makers of AppScale.


{{ partial "home/banner.html" . }} {{ partial "home/features.html" . }} {{ partial "home/post-list.html" . }}


Navigation: Home Dashboard My Items Checkout Help New Listing Forget Password? Search My Cart Transaction History Account


{% extends "base_job.html" %} {% block content %}
Welcome to the Member Board. This is a first demonstration for a future organization management platform.
The following sample operations are currently being run in this demo:
There are no jobs in the list.
{% endif %} {% endblock %}


The control valves in Modelica.Fluid.Valves have the parameters Kv and Cv. They are defined as unit-less variables, but in the description text a unit is given. The reason for this definition is the following:
The basic equation for valves is:
q = Av*sqrt(dp/rho)
In SI units, [q] is m3/s, [dp] is Pascal, [rho] is [kg/m3], and Av is an area, thus [Av] = m2. Basically, the equation stems from Bernoulli's law. Av is roughly 1.4 times the area of the valve throat. Now, usually valves aren't so big that their throat area is of the order of magnitude of square meters - depending on the applications it is from a few square millimeters to a few square centimeters. Therefore, in the common engineering practice, the following equations are used:
Europe:
q = Kv sqrt(dp/(rho/rho0)) , with [q] = m3/h, [dp] = bar
US:
q = Cv sqrt(dp/(rho/rho0)) , with [q] = USG/min, [dp] = psi
In both cases rho0 is the density of cold water at 4 °C, 999 kg/m3. Note that these equations use relative, not absolute densities.
It turns out that Kv = 1e6/27.7*Av and Cv = 1e6/24*Av, so both US and EU engineers get more or less the same numbers (just by sheer luck), with a range between a few units and a few hundred units for typical industrial applications, and everybody is happy.
Now, we've got two problems here. First, depending on the unit, we change the equation: with SI units, we use the density, with non-SI units, we use the relative density. So the quantities (not only the units!) of Av and Cv/Kv are different.
Second, the units of Kv and Cv are usually labeled "m3/h" and "USG/min", but as a matter of fact they are different, as can be seen from the equations above: they are actually m3/(h*sqrt(bar)) and USG/(min*sqrt(psi)). If I have a valve with Kv = 10 m3/h, it means I get 10 m3/h "for a pressure drop of 1 bar". Unfortunately, this is not correct from the point of view of strict dimensional analysis, but nobody uses sqrt(Pa) or sqrt(bar).
You might think this is crazy (it is, especially when you try to explain it), but as a matter of fact the valve coefficient is never given in square meters in any catalog or datasheet; Cv is still the most used (even in Europe), followed by Kv. So, it will be very inconvenient for users to type in Av in square meters.
The pragmatic approach used in Modelica.Fluid.ControlValves is to accept the fact that m3/h and USG/min are not the real units of Cv and Kv, so we can't use the general unit conversion mechanism, put them just as mnemonic labels in the comment, use non-dimensional coefficients in the interface, and then define properly dimensioned unit conversion within the model


By default messages will be deleted from SQS after they are retrieved. Enable this setting if you would like messages to not
be removed from SQS after retrieval. Your job configuration will probably want to remove these messages or they will be
retrieved again after the visibility timeout passes.
The goal is to prevent messages from going unprocessed when something crashes before the Jenkins job completes.


{% extends "header.html" %} {% block body %}
When someone refers to "the console," they are referring to where information from your program is ouput. You will see an example of "output to console" below. If you want this message to go away, just click again on the "console" button that you originally clicked on.
CODE HERE
EXPLANATION


We are a consulting firm specializing in helping small and medium sized private sector organizations access the true value of the government marketplace. We help our clients to grow their business by leveraging the power of Uncle Sam in order to take them to where they want to go in the area of commerce.
Whatever your business needs are in order to compete in the government arena; our business can assist you. We offer a full service to our clients. We can perform the following services among many others; assistance in obtaining special small business certifications, finding NAICS codes, applying for a DUNS number, SAM.gov registration, assistance in obtaining a CAGE code, tailored capability statements, GSA Schedule planning and networking assistance, and assistance in building lucrative relationships with procurment officers using our cutting edge market research tools.
We can help your business find competitive procurement opportunities, non-competitive solicitations, subcontracting opportunities, industry stategic-partnerships and joint ventures, and relevant networking events to attend in order to meet others in the government marketplace.
Obtaining a DUNS (Data-Universal-Numbering-System) number is crucial to entering the government marketplace. The proccess of obtaining this crucial number can be long and confusing. Here at the StateRidge Group LLC, we make the proccess quick and easy for a little or no cost. The government is the largest buyer of products and services in the world. For this reason, it is crucial to your business that you build a relationship with them today. When you think long term about the profoundly positive effect of your business entering the federal marketplace, we pay for ourselves.
Special certifications for small businesses entering the government marketplace can lead to huge profit potential. We save your business valuable time by applying for these for you. We help you make better use of the time you would otherwise be spend on countless websites navigating the tedious proccess of applying for federal set-aside program certifications. This is part of our commitment at the StateRidge Group LLC to provide the best services to our clients
Wether it be finding public competetive solicitations, private non-competetive ones, or opportunities in your industry for joint-ventures and strategic partnerships, we can assist you in any way neccessary. We are experienced in creating personal business relationships with contracting officers that are the most likely to award sole source contracts to our clients. Here at StateRidge, we work tirelessly every single day to find you the absolute best opportunities for your business in the government marketplace.


--- layout: 'interior-page' title: 'Civil Rights Commission Agendas' grandparent: 'Borough Clerk' parent: 'Minutes and Agendas' ---


#include <stddlg.h>
Inheritance diagram for TChDirDialog::
Public Methods | |
| TChDirDialog (ushort aOptions, ushort histId) | |
| virtual ushort | dataSize () |
| virtual void | getData (void *rec) |
| virtual void | handleEvent (TEvent &) |
| virtual void | setData (void *rec) |
| virtual Boolean | valid (ushort command) |
| virtual void | shutDown () |
Static Public Methods | |
| TStreamable* | build () |
Static Public Attributes | |
| const char* const | name |
Protected Methods | |
| TChDirDialog (StreamableInit) | |
| virtual void | write (opstream &os) |
| virtual void* | read (ipstream &is) |
Friends | |
| class | TDirListBox |
Note: TDirListBox is a friend of TChDirDialog, so that the member functions of TDirListBox can access the private members of TChDirDialog.
Definition at line 1326 of file stddlg.h.
|
|
Constructor. Creates a change directory dialog object with the given history identifier `histId'. The `aOptions' argument is a bitmap of the following flags:
Constant Value Meaning cdNormal 0x00 Option to use the dialog immediately. cdNoLoadDir 0x01 Option to initialize the dialog without loading the current directory into the dialog. Used if you intend using setData() to reset the directory or prior to storage on a stream. cdHelpButton 0x02 Option to put a help button in the dialog. The constructor creates and inserts:
Unsigned short `histId' is an arbitrary positive integer used to identify which history set to use. The library can use multiple history sets and all views with the same history identifier will share the same history set. |
|
|
Constructor. Used to recover the view from a stream. |
|
|
Creates a new TChDirDialog. Called to create an object in certain stream-reading situations. Reimplemented from TDialog. |
|
|
Returns the size of the data record of this dialog. By default, dataSize() returns 0. Override to return the size (in bytes) of the data used by getData() and setData() to store and retrieve dialog box input data.
Reimplemented from TGroup. |
|
|
Reads the data record of this dialog. By default, getData() does nothing. Override to copy dataSize() bytes from the view to `rec'. Used in combination with dataSize() and setData() to store and retrieve dialog box input data.
Reimplemented from TGroup. |
|
|
Standard TChDirDialog event handler. Calls TDialog::handleEvent() then processes cmRevert (restore previously current directory) and cmChangeDir (switch to selected directory) events. The dialog is redrawn if necessary. Reimplemented from TDialog. |
|
|
Used to recover the view from a stream. Reads from the input stream `is'. Reimplemented from TWindow. |
|
|
Writes the data record of this dialog. By default, setData() does nothing. Override to copy dataSize() bytes from `rec' to the view. Used in combination with dataSize() and getData() to store and retrieve dialog box input data.
Reimplemented from TGroup. |
|
|
Releases TChDirDialog resources. Used internally by TObject::destroy() to ensure correct destruction of derived and related objects. shutDown() is overridden in many classes to ensure the proper setting of related data members when destroy() is called.
Reimplemented from TWindow. |
|
|
Checks if the command `command' is valid. The return value is True if `command' is not cmOK. Otherwise (the OK button was pressed) the return value depends on path existence. The function returns True if the path exists. An invalid directory invokes the "Invalid directory" message box and returns False.
Reimplemented from TDialog. |
|
|
Used to store the view in a stream. Writes to the output stream `os'. Reimplemented from TWindow. |
|
|
Undocumented. Reimplemented from TDialog. |


Tell us about a time when you got block on a single problem:
Just this week I was stuck with something I needed to complete for this sprint. I had to complete some Javascript challenges called Kata's.
This challenge requires you to pass serveral "tests" and will complete once you pass all the test. I was going pretty well on the first kata but got stuck in the second.
I tried some of the solving techniques I read earlier on the sprint. It took me a while but I finally figured out why I was stuck. I kind of loose focus due to several reasons.
I was getting frustrated as I wasn't progressing as I want to be. That didn't help as my confidence was going down the longer the time I was stuck. I put pressure on myself by giving a goal to complete the challenges but with shorter timeboxes.
I ended up taking a long break (half a day) as I just realised I was actually tired from being on the screen for a long period of time. After clearing my mind and went back at it, I found that I did better and because my mind was calm and clear I managed to proceed again.
It still took me time but I manage to complete the challenge within timeframe.
Solved a problem in an elegant way.
When I returned from clearing my thoughts and having a bit of head space from the same issue above, I actually managed to get pass one test which I was stuck for more than an hour.
As soon as I started on the Kata again, I read the whole instructions again. I looked at the code given and the errors. I started to do pseudocode.
I was quite suprised how easier it was because I was well rested and more focused. I didn't have the same stress and my confidence was growing as I complete more test and eventually the whole Kata.
From this experience, I now know that I need to look after mysefl better. I just realised that I have been studying from late (10pm) at night until early morning (3 or 4am) the next day for most of the week.
This has affected my sleeping pattern which then affected my studies due to lack of sleep.
Reflect on how confident you feel using the problem solving techniques and processes:
Pseudocoding is one of the problem solving techniques we learnt from this sprint. It basically is an informal way of writing descriptions of a program or code without using the programming language.
Let's think of baking a cake, it is basically you writing your own recipe and steps for how to be bake. It doesn't need to be a full on cookbook, just the important parts. So a pseudocode way will be: gather all ingredients, prepare all utensils, make the base, make the icing, bake and put together.
Pseudocode is something I will try and practice more moving forward.
I read about the rubber ducky method. It's not something I would do out loud though. I normally talk to myself when solving problems so you can say Im also a duck.
My most preferred solving technique is probably relying on good old "google". I search for almost everything there when I get stuck. Sometimes I may not be lucky and not find anything related to what Im after.
That's the time that I will go and ask for help. I normally will try and solve problems myself and give me a timeframe. If I am still stuck then I will ask for help then, either from cohorts or my facilitator.
****Images sourced from google image search****


You might be four steps away from our services:
1- SEARCH
It's very simple. Click the desired school of your choice by clicking the search area and enter the school you want to contact by name or alternately, you can just click the link to see all available
2- DISCOVER
It's never enough to find the school. Every school has an address so do you. Click on the address to view the school location in proximity with yours
3- JUST APPLY
It's time to get to know your new found school. You should follow the processes of the school and most especially ensure you meet up with their requirements.
4- TAKE A NAP
Enter the desire school you wish to search for in the search icon above
We work with over 10,000 schools across the world. come and partner with us
find your dream school and thank us later
We work with over 10,000 schools across the world. come and partner with us
find your dream school and thank us later
We work with over 10,000 schools across the world. come and partner with us
find your dream school and thank us later


This is an example of a post which includes a feature image that has a text, where you don’t want to redisplay the title. We cannot simply set the title to the empty string, as that would break pages that list this post, such as home and tags.
This is an example of a post which includes a feature image that has a text, where you don’t want to redisplay the title. We cannot simply set the title to the empty string, as that would break pages that list this post, such as home and tags.


Audit Analytics Cloud
A cloud-based implementation of the Open Source Big Data Enabled Generalized Audit Software (BDGAS) project. Perform standard audit analytics on Big Data sets on a cluster of computers - greatly enhancing the speed of processing.
Built on industry standard security technologies such as Spring Security, OAuth2 and OpenID Connect, with encryption of data in transit and data at rest.
Designed to be easy to use and extendible: Extend the BDGAS Platform by creating customized audit test plugins.


You can change any blue number by clicking and dragging on the number with your mouse. The numbers highlighted in yellow will change as a consequence.
We assume that we want to delay construction of further low-carbon electricity until the last possible moment, but still decarbonise electricity by 2050 in order to meet our legally binding target. How late we can leave it depends on the fastest we can imagine building low-carbon electricity. In this case we we assume that, at most, GW of low carbon capacity can be built each year, and that the maximum rate at which the low carbon construction industry can expand is a year. This means that new low-carbon capacity doesn't need to start generating until in order for electricity to more-or-less decarbonise by 2050.
One critical assumption is that of the low-carbon capacity that is subsequently built is wind. This is important because wind delivers less energy per GW of capacity than nuclear, CCS or bioenergy.
We have also assumed that, after 2020, the rate of low-carbon construction falls by at most in any given year, and never falls below GW per year.
To work out the emissions intensity in 2030, we assume that GW of nuclear and CCS is built by 2020 and that the emissions factor for remaining fossil fuel generation is gCO2/kWh in 2020 and is expected to fall steadily towards gCO2/kWh by 2050.
If emissions from heavy industry and electricity generation exceed the UK's share of the EU Emissions Trading Scheme cap (assumed to be 690 MtCO2e over the 4th Carbon Budget period 2023-2027) then allowances will need to be purchased from other EU countries. To estimate this purchase, we assume that industrial emissions grow at per year until after which they grow at until 2050. This results in emissions from the traded sector over the 4th Carbon Budget of MtCO2e.
Gas reaches a cost of £/MWh in 2030 and £/MWh in 2050.
Carbon Dioxide emissions cost £/tCO2 in 2030 and £/tCO2 in 2050.
Gas generation costs X £/kW to build and X £/kW to operate. The costs are falling by a year and the plants last, at most, years.
Intermittent low carbon generation (e.g., wind) costs X £/kW to build and X £/kW to operate. The costs are falling by a year and the plants last, at most, years.
Other low carbon generation (e.g., nuclear, CCS) costs X £/kW to build and X £/kW to operate. The costs are falling by a year and the plants last, at most, years.
Electricity demand grows by a year until widespread electrification of demand starts in and then grows steadily to reach TWh/y in 2050.
By 2050 we assume that the maximum electricity demand is of the average demand and the minimum electricity demand is of the average demand.
This is based on a very simple one sheet excel model.Please download source, report bugs and propose changes at http://github.com/decc/electricity-build-rate-constraint. It is © 2013 Tom Counsell and licensed under the open source MIT licence. This software is provided "as is", without warranty of any kind, express or implied, including but not limited to the warranties of merchantability, fitness for a particular purpose and noninfringement. In no event shall the authors or copyright holders be liable for any claim, damages or other liability, whether in an action of contract, tort or otherwise, arising from, out of or in connection with the software or the use or other dealings in the software.


Data structures for representing the abstract syntax tree of BoogiePL.
Author: rgrig, reviewed by NAME (DATE)
NOTE: CIL has a pretty good design. I will borrow heavily from that.
The AST is kept as flat as possible.
The abstract syntax is described using the following language.
An inheritance rule A :> B, C means that classes B
and C
are derived from A
. The composition rule
A = B f1, C f2
means that class A
has a field
f1
of type B
and a field f2
fo type
C
. In this context a type (B
or C
)
can have the special form enum(ENUM_NAME: VAL1, VAL2, ...).
All the values corresponding to a certain enum name (there might be more than
one occurence of the name!) appear in an enum declaration embedded in the
current class. A type name followed by an exclamation mark means that
that reference must be non-null.
The data structures are functional. The lists are implemented in the usual head/tail (or singly linked, depending on where you come from) style. There are no setter methods.
// This is the abstract grammar for FreeBoogie used to generate // the AST. See also the template (*.tpl) files. // TODO: there is some repetition here (the tail). Make the // code generator smarter // The program is a (functional) list of (global) declarations Declaration :> TypeDecl, ConstDecl, Function, Axiom, VariableDecl, Procedure, Implementation; TypeDecl = String! name, Declaration tail; ConstDecl= String! id, Type! type, Declaration tail; Function = Signature! sig, Declaration tail; Axiom = Expr! expr, Declaration tail; VariableDecl = String name, Type! type, Declaration tail; Procedure = Signature! sig, Specification spec, Declaration tail; Implementation = Signature! sig, Body! body, Declaration tail; // Types and constants Type :> PrimitiveType, UserType, ArrayType, GenericType, DepType, TupleType; ArrayType = Type! rowType, Type colType, Type! elemType; PrimitiveType = enum(Ptype: BOOL, INT, REF, NAME, ANY, ERROR) ptype; GenericType = Type! param, Type! type; DepType = Type! type, Expr! pred; UserType = String! name; TupleType = Type! type, TupleType tail; // Not constructed during parsing. // In BoogiePL equal(TupleType(t,null), t). // The alternative is to put tails on all types but that looked // much more invasive that this solution which affects only one // place in the typechecker (roughly) in an ugly way. // Signatures are used to represent uninterpreted functions Signature = String! name, Declaration args, Declaration results; // Procedures and implementations Specification = enum(SpecType: REQUIRES, MODIFIES, ENSURES) type, Expr! expr, boolean free, Specification tail; Body = Declaration vars, Block blocks; Block = String! name, Commands cmds, BlockEnd! end, Block tail; BlockEnd = enum(BlockType: GOTO, RETURN) type, Identifiers dest; // Commands Commands = Command! cmd, Commands tail; Command :> AssignmentCmd, AssertAssumeCmd, HavocCmd, CallCmd; AssignmentCmd = Expr! lhs, Expr! rhs; // TODO: define exactly what lhs can be AssertAssumeCmd = enum(CmdType: ASSERT, ASSUME) type, Expr! expr; HavocCmd = AtomId! id; CallCmd = String! procedure, Identifiers results, Exprs args; // Expressions Expr :> BinaryOp, UnaryOp, Atom, Exprs; BinaryOp = enum(Op: PLUS, MINUS, MUL, DIV, MOD, EQ, NEQ, LT, LE, GE, GT, SUBTYPE, EQUIV, IMPLIES, AND, OR) op, Expr! left, Expr! right; UnaryOp = enum(Op: MINUS, NOT) op, Expr! e; Atom :> AtomLit, AtomNum, AtomId, AtomFun, AtomOld, AtomCast, AtomQuant, AtomIdx; AtomLit = enum(AtomType: FALSE, TRUE, NULL) val; AtomNum = BigInteger val; AtomId = String! id; AtomFun = String! function, Exprs args; AtomOld = Expr! e; AtomCast = Expr! e, Type! type; AtomQuant = enum(QuantType: EXISTS, FORALL) quant, Declaration! vars, Trigger trig, Expr! e; AtomIdx = Atom! atom, Index! idx; Index = Expr! a, Expr b; // Some simple lists Trigger = String label, Exprs! exprs, Trigger tail; Identifiers = AtomId! id, Identifiers tail; Exprs = Expr! expr, Exprs tail; // TODO: the invariants Specification: type==Type.MODIFIES ==> \typeof(expr)==AtomId
The invariants specified for classes are delimited by the end of the line, not by semicolons. This way you are free to use semicolons when writing them. In fact, everything up to the end of the line is considered as just text by the code generator in {@code freeboogie.ast.gen}, but we will typically use JML invariants.


It's {{conditions}} in {{location}}. In the last 24 hours the high temperature was {{last24_high}}°, and the low was {{last24_low}}°.
Cloud cover: {{cloudcover}}%


{% extends 'auth_base.html' %} {% block title %}Password Reset{{ object.name }}{% endblock %} {% load static %} {% block css %}{% endblock %} {% block content %}
Change your password in three easy steps. This will help you to secure your password!


We got mices!
- reinvent dot-com e-markets
- unleash real-time platforms
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- orchestrate proactive solutions
- unleash out-of-the-box models


Anytime is Train Time
Choo Choo. Chee Chee.
Current Train Schedule
Click
to Edit
Train Name
Destination
Frequency (min)
Next Arrival
Minutes Away
Add Train
Train Name
Destination
First Train Time (e.g. 11:00 AM)
Frequency (min)
Submit
Submit Changes
Delete Record


DWARFExpression
public enum DWARFExpression
DWARF expressions describe how to compute a value or specify a location. They are expressed in terms of DWARF operations that operate on a stack of values.
A DWARF expression is encoded as a stream of operations, each consisting of an opcode followed by zero or more literal operands.
-
Encodes a single machine address value whose size is the size of an address on the target machine.
Declaration
Swift
case addr(UInt64)
-
Encodes the unsigned literal value 0.
Declaration
Swift
case lit0
-
Encodes the unsigned literal value 1.
Declaration
Swift
case lit1
-
Encodes the unsigned literal value 2.
Declaration
Swift
case lit2
-
Encodes the unsigned literal value 3.
Declaration
Swift
case lit3
-
Encodes the unsigned literal value 4.
Declaration
Swift
case lit4
-
Encodes the unsigned literal value 5.
Declaration
Swift
case lit5
-
Encodes the unsigned literal value 6.
Declaration
Swift
case lit6
-
Encodes the unsigned literal value 7.
Declaration
Swift
case lit7
-
Encodes the unsigned literal value 8.
Declaration
Swift
case lit8
-
Encodes the unsigned literal value 9.
Declaration
Swift
case lit9
-
Encodes the unsigned literal value 10.
Declaration
Swift
case lit10
-
Encodes the unsigned literal value 11.
Declaration
Swift
case lit11
-
Encodes the unsigned literal value 12.
Declaration
Swift
case lit12
-
Encodes the unsigned literal value 13.
Declaration
Swift
case lit13
-
Encodes the unsigned literal value 14.
Declaration
Swift
case lit14
-
Encodes the unsigned literal value 15.
Declaration
Swift
case lit15
-
Encodes the unsigned literal value 16.
Declaration
Swift
case lit16
-
Encodes the unsigned literal value 17.
Declaration
Swift
case lit17
-
Encodes the unsigned literal value 18.
Declaration
Swift
case lit18
-
Encodes the unsigned literal value 19.
Declaration
Swift
case lit19
-
Encodes the unsigned literal value 20.
Declaration
Swift
case lit20
-
Encodes the unsigned literal value 21.
Declaration
Swift
case lit21
-
Encodes the unsigned literal value 22.
Declaration
Swift
case lit22
-
Encodes the unsigned literal value 23.
Declaration
Swift
case lit23
-
Encodes the unsigned literal value 24.
Declaration
Swift
case lit24
-
Encodes the unsigned literal value 25.
Declaration
Swift
case lit25
-
Encodes the unsigned literal value 26.
Declaration
Swift
case lit26
-
Encodes the unsigned literal value 27.
Declaration
Swift
case lit27
-
Encodes the unsigned literal value 28.
Declaration
Swift
case lit28
-
Encodes the unsigned literal value 29.
Declaration
Swift
case lit29
-
Encodes the unsigned literal value 30.
Declaration
Swift
case lit30
-
Encodes the unsigned literal value 31.
Declaration
Swift
case lit31
-
Encodes a 1-byte unsigned integer constant.
Declaration
Swift
case const1u(UInt8)
-
Encodes a 1-byte signed integer constant.
Declaration
Swift
case const1s(Int8)
-
Encodes a 2-byte unsigned integer constant.
Declaration
Swift
case const2u(UInt16)
-
Encodes a 2-byte signed integer constant.
Declaration
Swift
case const2s(Int16)
-
Encodes a 4-byte unsigned integer constant.
Declaration
Swift
case const4u(UInt32)
-
Encodes a 4-byte signed integer constant.
Declaration
Swift
case const4s(Int32)
-
Encodes a 8-byte unsigned integer constant.
Declaration
Swift
case const8u(UInt64)
-
Encodes a 8-byte signed integer constant.
Declaration
Swift
case const8s(Int64)
-
Encodes a little-endian base-128 unsigned integer constant.
Declaration
Swift
case constu(UInt64)
-
Encodes a little-endian base-128 signed integer constant.
Declaration
Swift
case consts(Int64)
-
Encodes an unsigned little-endian base-128 value, which is a zero-based index into the
.debug_addr
section where a machine address is stored. This index is relative to the value of theDW_AT_addr_base
attribute of the associated compilation unit.Declaration
Swift
case addrx(UInt64)
-
Encodes an unsigned little-endian base-128 value, which is a zero-based index into the
.debug_addr
section where a constant, the size of a machine address, is stored. This index is relative to the value of theDW_AT_addr_base
attribute of the associated compilation unit.This operation is provided for constants that require link-time relocation but should not be interpreted by the consumer as a relocatable address ( for example, offsets to thread-local storage).
Declaration
Swift
case constx(UInt64)
-
Provides a signeed little-endian base-128 offset from the address specified by the location description in the
DW_AT_frame_base
attribute of the current function.Declaration
Swift
case fbreg(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 0.
Declaration
Swift
case breg0(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 1.
Declaration
Swift
case breg1(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 2.
Declaration
Swift
case breg2(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 3.
Declaration
Swift
case breg3(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 4.
Declaration
Swift
case breg4(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 5.
Declaration
Swift
case breg5(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 6.
Declaration
Swift
case breg6(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 7.
Declaration
Swift
case breg7(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 8.
Declaration
Swift
case breg8(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 9.
Declaration
Swift
case breg9(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 10.
Declaration
Swift
case breg10(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 11.
Declaration
Swift
case breg11(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 12.
Declaration
Swift
case breg12(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 13.
Declaration
Swift
case breg13(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 14.
Declaration
Swift
case breg14(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 15.
Declaration
Swift
case breg15(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 16.
Declaration
Swift
case breg16(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 17.
Declaration
Swift
case breg17(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 18.
Declaration
Swift
case breg18(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 19.
Declaration
Swift
case breg19(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 20.
Declaration
Swift
case breg20(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 21.
Declaration
Swift
case breg21(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 22.
Declaration
Swift
case breg22(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 23.
Declaration
Swift
case breg23(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 24.
Declaration
Swift
case breg24(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 25.
Declaration
Swift
case breg25(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 26.
Declaration
Swift
case breg26(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 27.
Declaration
Swift
case breg27(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 28.
Declaration
Swift
case breg28(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 29.
Declaration
Swift
case breg29(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 30.
Declaration
Swift
case breg30(Int64)
-
The single operand of the breg operation provides a signed little-endian base-128 offset from the contents of register 31.
Declaration
Swift
case breg31(Int64)
-
Provides the sum of two values specified by its two operands. The first operand being a register number which is in unsigned little-endian base-128 form. The second being an offset in signed little-endian base-128 form.
Declaration
Swift
case bregx(UInt64, Int64)
-
Provides an operation with three operands: The first is an unsigned little-endian base-128 integer that represents the offset of a debugging information entry in the current compilation unit, which must be a base type entry that provides the type of the constant provided. The second operand is a 1-byte unsigned integer that specifies the size of the constant value, which is the same size as the base type referenced by the first operand. The third operand is a sequence of bytes of the given size that is interpreted as a value of the referenced type.
Declaration
Swift
case constType(DIAttributeTypeEncoding, UInt8, [UInt8])
-
Provides the contents of a given register interpreted as a value of a given type. The first operand is an unsigned little-endian base-128 number which identifies a register whose contents are pushed onto the stack. The second operand is an unsigned little-endian base-128 number that represents the offset of a debugging information entry in the current compilation unit which must have base type.
Declaration
Swift
case regvalType(UInt64, DIAttributeTypeEncoding)
-
Duplicates the value (including its type identifier) at the top of the stack.
Declaration
Swift
case dup
-
Pops the value (including its type identifier) at the top of the stack.
Declaration
Swift
case drop
-
Provides a 1-byte index that is used to index into the stack. A copy of stack entry at that index is pushed onto the stack.
Declaration
Swift
case pick(UInt8)
-
Duplicates the entry currently second in the stack and pushes it onto the stack.
This operation is equivalent to
.pick(1)
.Declaration
Swift
case over
-
Swaps the top two stack entries. The entry at the top of the stack (including its type identifier) becomes the second stack entry, and the second entry (including its type identifier) becomes the top of the stack.
Declaration
Swift
case swap
-
Rotates the first three stack entries. The entry at the top of the stack (including its type identifier) becomes the third stack entry, the second stack entry (including its type identifier) becomes the top of the stack, and the third entry (including its type identifier) becomes the second entry.
Declaration
Swift
case rot
-
Pops the top stack entry and treats it as an address.
The popped value must have an integral type. The value retrieved from that address is pushed, and has the generic type. The size of the data retrieved from the dereferenced address is the size of an address on the target machine.
Declaration
Swift
case deref
-
Pops the top stack entry and treats it as an address.
The popped value must have an integral type. The value retrieved from that address is pushed, and has the generic type. The size of the data retrieved from the dereferenced address is specified by the operand, whose value is a 1-byte unsigned integral constant. The data retrieved is zero-extended to the size of an address on the target machine before being pushed onto the expression stack.
Declaration
Swift
case derefSize(UInt8)
-
Pops the top stack entry and treats it as an address.
The popped value must have an integral type. The size of the data retrieved from the dereferenced address is specified by the first operand, whose value is a 1-byte unsigned integral constant. The data retrieved is zero-extended to the size of an address on the target machine before being pushed onto the expression stack. The second operand is an unsigned little-endian base-128 integer that represents the offset of a debugging information entry in the current compilation unit which must have a base type entry that provides the type of the data pushed.
Declaration
Swift
case derefType(UInt8, UInt64)
-
Provides an extended dereference mechanism.
The entry at the top of the stack is treated as an address. The second stack entry is treated as an “address space identifier” for those architectures that support multiple address spaces. Both of these entries must have integral type identifiers.
The top two stack elements are popped, and a data item is retrieved through an implementation-defined address calculation and pushed as the new stack top together with the generic type identifier. The size of the data retrieved from the dereferenced address is the size of the generic type.
Declaration
Swift
case xderef
-
Provides an extended dereference mechanism.
The entry at the top of the stack is treated as an address. The second stack entry is treated as an “address space identifier” for those architectures that support multiple address spaces. Both of these entries must have integral type identifiers.
The top two stack elements are popped, and a data item is retrieved through an implementation-defined address calculation and pushed as the new stack top together with the generic type identifier. The size of the data retrieved from the dereferenced address is specified by the operand, whose value is a 1-byte unsigned integral constant. The data retrieved is zero-extended to the size of an address on the target machine before being pushed onto the expression stack.
Declaration
Swift
case xderefSize(UInt8)
-
Pops the top two stack entries, treats them as an address and an address space identifier, and pushes the value retrieved. The size of the data retrieved from the dereferenced address is specified by the first operand, whose value is a 1-byte unsigned integral constant. The data retrieved is zero-extended to the size of an address on the target machine before being pushed onto the expression stack. The second operand is an unsigned little-endian base-128 integer that represents the offset of a debugging information entry in the current compilation unit, which must have base type that provides the type of the data pushed.
Declaration
Swift
case xderefType(UInt8, UInt64)
-
Pushes the address of the object currently being evaluated as part of evaluationo of a user-presented expression. The object may correspond to an indepdendent variable deescribed by its own debugging information entry or it may be a component of an array, structure, or class whose address has been dynamically determined by an earlier step during user expression evaluation.
Declaration
Swift
case pushObjectAddress
-
Pops a value from the stack, which must have an integral type identifier, translates this value into an address in the thread-local storage for a thread, and pushes the addreess onto the stack together with the generic type identifier. The meaning of the value on the top of the stack prior to this operation is defined by the run-time environment. If the run-time environment supports multiple thread-local storage blocks for a single thread, then the block corresponding to the executable or shared library containing this DWARF expreession is used.
Declaration
Swift
case formTLSAddress
-
Pushes the value of the Canonical Frame Address (CFA), obtained from the Call Frame Information.
Declaration
Swift
case callFrameCFA
-
Pops the top stack entry, interprets it as a signed value and pushes its absolute value. If the absolute value cannot be represented, the result is undefined.
Declaration
Swift
case abs
-
Pops the top two stack values, performs a bitwise and operation on the two, and pushes the result.
Declaration
Swift
case and
-
Pops the top two stack values, divides the former second entry by the former top of the stack using signed division, and pushes the result.
Declaration
Swift
case div
-
Pops the top two stack values, subtracts the former second entry by the former top of the stack, and pushes the result.
Declaration
Swift
case minus
-
Pops the top two stack values, performs a modulo operation on the two, and pushes the result.
Declaration
Swift
case mod
-
Pops the top two stack values, multiplies the former second entry by the former top of the stack, and pushes the result.
Declaration
Swift
case mul
-
Pops the top stack entry, interprets it as a signed value, and pushes its negation. If the negation cannot be represented, the result is undefined.
Declaration
Swift
case neg
-
Pops the top stack entry, and pushes its bitwise complement.
Declaration
Swift
case not
-
Pops the top two stack entries, performs a bitwise or operation on the two, and pushes the result.
Declaration
Swift
case or
-
Pops the top two stack entries, adds them together, and pushes the result.
Declaration
Swift
case plus
-
Pops the top stack entry, adds it to the unsigned little-endian base-128 constant operand interpreted as the same type as the operand popped from the top of the stack and pushes the result.
Declaration
Swift
case plus_uconst(UInt64)
-
Pops the top twoo stack entries, shifts the former second entry left (filling with zero bits) by the number of bits specified by the former top of the stack, and pushes the result.
Declaration
Swift
case shl
-
Pops the top two stack entries, shifts the former second entry right logically (filling with zero bits) by the number of bits specified by the former top of the stack, and pushes the result.
Declaration
Swift
case shr
-
Pops the top two stack entries, shifts the former second entry right arithmetically (divides the magnitude by 2, keeps the same sign for the result) by the number of bits specified by the former top of the stack, and pushes the result.
Declaration
Swift
case shra
-
Pops the top two stack entries, performs a bitwise exclusive-or operation on the two, and pushes the result.
Declaration
Swift
case xor
-
Pops the top two stack values, which must have the same type, either the base type or the generic type, compares them using the
=
relational operator, and pushes the constant 1 onto the stack if the result is true, else pushes the constnat value 0 if the result is false.Declaration
Swift
case eq
-
Pops the top two stack values, which must have the same type, either the base type or the generic type, compares them using the
>=
relational operator, and pushes the constant 1 onto the stack if the result is true, else pushes the constnat value 0 if the result is false.Declaration
Swift
case ge
-
Pops the top two stack values, which must have the same type, either the base type or the generic type, compares them using the
>
relational operator, and pushes the constant 1 onto the stack if the result is true, else pushes the constnat value 0 if the result is false.Declaration
Swift
case gt
-
Pops the top two stack values, which must have the same type, either the base type or the generic type, compares them using the
<=
relational operator, and pushes the constant 1 onto the stack if the result is true, else pushes the constnat value 0 if the result is false.Declaration
Swift
case le
-
Pops the top two stack values, which must have the same type, either the base type or the generic type, compares them using the
<
relational operator, and pushes the constant 1 onto the stack if the result is true, else pushes the constnat value 0 if the result is false.Declaration
Swift
case lt
-
Pops the top two stack values, which must have the same type, either the base type or the generic type, compares them using the
!=
relational operator, and pushes the constant 1 onto the stack if the result is true, else pushes the constnat value 0 if the result is false.Declaration
Swift
case ne
-
Unconditionally branches forward or backward by the number of bytes specified in its operand.
Declaration
Swift
case skip(Int16)
-
Conditionally branches forward or backward by the number of bytes specified in its operand according to the value at the top of the stack. The top of the stack is popped, and if it is non-zero then the branch is performed.
Declaration
Swift
case bra(Int16)
-
Performs a DWARF procedure call during the evaluation of a DWARF expression or location description. The operand is the 2-byte unsigned offset of a debugging information entry in the current compilation unit.
For references from one executable or shared object file to another, the relocation must be performed by the consumer.
This operation transfers control of DWARF expression evaluation to the
DW_AT_location
attribute of the referenced debugging information entry. If there is no such attribute, then there is no effect. Execution returns to the point following the call when the end of the attribute is reached.Declaration
Swift
case call2(UInt16)
-
Performs a DWARF procedure call during the evaluation of a DWARF expression or location description. The operand is the 4-byte unsigned offset of a debugging information entry in the current compilation unit.
For references from one executable or shared object file to another, the relocation must be performed by the consumer.
This operation transfers control of DWARF expression evaluation to the
DW_AT_location
attribute of the referenced debugging information entry. If there is no such attribute, then there is no effect. Execution returns to the point following the call when the end of the attribute is reached.Declaration
Swift
case call4(UInt32)
-
Performs a DWARF procedure call during the evaluation of a DWARF expression or location description. The operand is used as the offset of a debugging information entry in a
.debug_info
section which may be contained in an executable or shared object file rather than that containing the operator.For references from one executable or shared object file to another, the relocation must be performed by the consumer.
This operation transfers control of DWARF expression evaluation to the
DW_AT_location
attribute of the referenced debugging information entry. If there is no such attribute, then there is no effect. Execution returns to the point following the call when the end of the attribute is reached.Declaration
Swift
case callRef(UInt64)
-
Pops the top stack entry, converts it to a different type, then pushes the result.
The operand is an unsigned little-endian base-128 integer that represents the offset of a debugging information entry in the current compilation unit, or value 0 which represents the generic type. If the operand is non-zero, the referenced entry must be a base type entry that provides the type to which the value is converted.
Declaration
Swift
case convert(UInt64)
-
Pops the top stack entry, reinterprets the bits in its value as a value of a different type, then pushes the result.
The operand is an unsigned little-endian base-128 integer that represents the offset of a debugging information entry in the current compilation unit, or value 0 which represents the generic type. If the operand is non-zero, the referenced entry must be a base type entry that provides the type to which the value is converted.
Declaration
Swift
case reinterpret(UInt64)
-
This operation has no effect on the location stack or any of its values.
Declaration
Swift
case nop
-
Pushes the value that the described location held upon entering the current subprogram. The first operand is an unsigned little-endian base-128 number expressing the length of the second operand in bytes.
Declaration
Swift
indirect case entryValue(UInt64, DWARFExpression)
-
Encodes the name of the register numbered 0.
Declaration
Swift
case reg0
-
Encodes the name of the register numbered 1.
Declaration
Swift
case reg1
-
Encodes the name of the register numbered 2.
Declaration
Swift
case reg2
-
Encodes the name of the register numbered 3.
Declaration
Swift
case reg3
-
Encodes the name of the register numbered 4.
Declaration
Swift
case reg4
-
Encodes the name of the register numbered 5.
Declaration
Swift
case reg5
-
Encodes the name of the register numbered 6.
Declaration
Swift
case reg6
-
Encodes the name of the register numbered 7.
Declaration
Swift
case reg7
-
Encodes the name of the register numbered 8.
Declaration
Swift
case reg8
-
Encodes the name of the register numbered 9.
Declaration
Swift
case reg9
-
Encodes the name of the register numbered 10.
Declaration
Swift
case reg10
-
Encodes the name of the register numbered 11.
Declaration
Swift
case reg11
-
Encodes the name of the register numbered 12.
Declaration
Swift
case reg12
-
Encodes the name of the register numbered 13.
Declaration
Swift
case reg13
-
Encodes the name of the register numbered 14.
Declaration
Swift
case reg14
-
Encodes the name of the register numbered 15.
Declaration
Swift
case reg15
-
Encodes the name of the register numbered 16.
Declaration
Swift
case reg16
-
Encodes the name of the register numbered 17.
Declaration
Swift
case reg17
-
Encodes the name of the register numbered 18.
Declaration
Swift
case reg18
-
Encodes the name of the register numbered 19.
Declaration
Swift
case reg19
-
Encodes the name of the register numbered 20.
Declaration
Swift
case reg20
-
Encodes the name of the register numbered 21.
Declaration
Swift
case reg21
-
Encodes the name of the register numbered 22.
Declaration
Swift
case reg22
-
Encodes the name of the register numbered 23.
Declaration
Swift
case reg23
-
Encodes the name of the register numbered 24.
Declaration
Swift
case reg24
-
Encodes the name of the register numbered 25.
Declaration
Swift
case reg25
-
Encodes the name of the register numbered 26.
Declaration
Swift
case reg26
-
Encodes the name of the register numbered 27.
Declaration
Swift
case reg27
-
Encodes the name of the register numbered 28.
Declaration
Swift
case reg28
-
Encodes the name of the register numbered 29.
Declaration
Swift
case reg29
-
Encodes the name of the register numbered 30.
Declaration
Swift
case reg30
-
Encodes the name of the register numbered 31.
Declaration
Swift
case reg31
-
Contains a single unsigned little-endian base-128 literal operand that encodes the name of a register.
Declaration
Swift
case regx(UInt64)
-
Specifies an immediate value using two operands: an unsigned little-endian base-128 length, followed by a sequence of bytes of the given length that contain the value.
Declaration
Swift
case implicitValue(UInt64, [UInt8])
-
Specifies that the object does not exist in memory, but its value is nonetheless known and is at the top of the DWARF expression stack. In this form of location description, the DWARF expression represents the actual value of the object, rather than its location.
stackValue
acts as an expression terminator.Declaration
Swift
case stackValue
-
Takes a single operand in little-endian base-128 form. This operand describes the size in bytes of the piece of the object referenced by the preceding simple location description. If the piece is located in a register, but does not occupy the entire register, the placement of the piece within that register is defined by the ABI.
Declaration
Swift
case piece(UInt64)
-
Takes two operands, an unsigned little-endian base-128 form number that gives the size in bits of the piece. The second is an unsigned little- endian base-128 number that gives the offset in bits from the location defined by the preceding DWARF location description.
bitPiece
is used instead ofpiece
when the piece to be assembled into a value or assigned to is not byte-sized or is not at the start of a register or addressable unit of memory.Interpretation of the offset depends on the location description. If the location description is empty, the offset doesn’t matter and the
bitPiece
operation describes a piece consisting of the given number of bits whose values are undefined. If the location is a register, the offset is from the least significant bit end of the register. If the location is a memory address, thebitPiece
operation describes a sequence of bits relative to the location whose address is on the top of the DWARF stack using the bit numbering and direction conventions that are appropriate to the current language on the target system. If the location is any implicit value or stack value, thebitPiece
operation describes a sequence of bits using the least significant bits of that value.Declaration
Swift
case bitPiece(UInt64, UInt64)
-
Specifies that the object is a pointer that cannot be represented as a real pointer, even though the value it would point to can be described.
In this form of location description, the DWARF expression refers to a debugging information entry that represents the actual value of the object to which the pointer would point. Thus, a consumer of the debug information would be able to show the value of the dereferenced pointer, even when it cannot show the value of the pointer itself.
The first operand is used as the offset of a debugging information entry in a
.debug_info
section, which may be contained in an executable or shared object file other than that containing the operator.For references from one executable or shared object file to another, the relocation must be performed by the consumer.
Declaration
Swift
case implicitPointer(UInt64, Int64)


THE BAT WHISPERS A film review by Jeff Meyer Copyright 1988 Jeff Meyer
See at the Seattle Film Festival: THE BAT WHISPERS (USA, 1930) Director/Screenwriter: Roland West (from a play by Avery Hopwood and Mary Roberts Rinehart) Cast: Chester Morris, Una Merkel, Grayce Hampton, Maude Eburne, William Bakewell, Gustav von Seyffertitz
First, the archival notes: THE BAT WHISPERS is one of the first films shown in 65mm (as opposed to the 35mm which is still the standard for films today), and has been restored by the UCLA Film and Television Archive. Technically, it's a piece of history, with it's use of the big screen and numerous "moving shots" that are striking even today.
The plot is that there's a master thief by the name of The Bat who is going around, stealing, murdering and basically making the police look like "bumbling amateurs." However, a rival thief has stolen some valuable jewels before The Bat can swipe them himself, and the looney-tunes burglar (dressed up in full cape and everything) trails the New Crook on the Block to a old mansion owned by a decisive matriarch and her annoyingly loud comic-relief maid (that maid's whining was enough to almost for me to wish for Jason to make an appearance). Lots of characters arrive, and we have to figure out who is the Bat and who is his rival criminal. This film has all the signs of being made just after the switch to sound; everyone overacts outrageously and uses pantomime to ridiculous degrees, but none more than Chester Morris, winner of the coveted Life Achievement award for Cheesy Acting. His eyes roll, he stares into the night, muttering melodramatic nothings. *He* was fun to watch, I'll admit....
Outside of that, folks, this film must have been the Member's Choice at the Over-The-Top Acting Hall of Fame. It was adapted from a stage play, and was basically filmed that way, except for several miniatures and outdoor shots. It reminded me of a game of Clue: the characters have all the personality of wooden inch-high markers, and are stereotypical to the point of exasperation. A crazed butler with a hunchback! A sinister doctor vith a Transylvanian accent! A cowardly old maid! A hopeless gumshoe! A masked criminal mastermind (CrimeCausers Handbook: any *real* criminal mastermind doesn't need a mask. He or she hires someone else to do their duty work.) A truly mechanical script, too; I'm willing to take into account that this is a 1930s film, but really, the audience was laughing at it throughout the whole thing (however, not enough to justify seeing the film).
Rating: Not advised, unless you're keenly (very, very keenly) interested in the history of the American cinema. Or you want to learn how make the eyes roll back into your head....
Moriarty, aka Jeff Meyer INTERNET<EMAIL_ADDRESS>Manual UUCP: {uw-beaver, sun, microsoft}!fluke!moriarty
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


Hark the Sound
UNC Computer Science
Enabling Technology
Copyright © 2010, 2011. All Rights Reserved.
View the
site credits
for details.


Land surface temperature is how hot the “surface” of the Earth would feel to the touch in a particular location. From a satellite’s point of view, the “surface” is whatever it sees when it looks through the atmosphere to the ground. It could be snow and ice, the grass on a lawn, the roof of a building, or the leaves in the canopy of a forest. Thus, land surface temperature is not the same as the air temperature that is included in the daily weather report.


Parentheses () we use () for grouping and containing
expressions and calling functions. parentheses are used to contain a list
of parameters passed to function.
grouping :------------------------var num = (10+5)
Containing expressions : ------if (this < this){}
functional : ----------------------function this(para1 ,para2){}
Brackets []they are used with arrays and let us access
to an object's properties by using bracket notation.
Array : ----- var newArray = [1, true, "string"]
Object : ---- var obj = newObj["this"]
Braces {}The curly brackets are used to define the
start and end of the function, they also separate code into blocks
within the function. The curly brackets help JavaScript to understand
the structure of our script and what we want it to do,
function : ------------------ MyFunction(){alert("Hello world!")}
separate blocks:-----if(a==1){do("H")}else{do("Goodbye!")}
Single quotes '' and double quotes ""sboth are used define strings with some diffrerence


{% include patterns/forms/radio_buttons.html %}
{% include patterns/forms/radio_buttons_code.html %}
{% include patterns/forms/checkboxes.html %}
{% include patterns/forms/checkboxes_code.html %}
{% include patterns/forms/dropdown.html %}
{% include patterns/forms/dropdown_code.html %}


Hypertext Markup Language (HTML) is the standard markup language for documents designed to be displayed in a web browser. It can be assisted by technologies such as Cascading Style Sheets (CSS) and scripting languages such as JavaScript.
Cascading Style Sheets (CSS) is a simple mechanism for adding style (e.g., fonts, colors, spacing) to Web documents. These pages contain information on how to learn and use CSS and on available software. They also contain news from CSS group.
JavaScript, often abbreviated as JS, is a programming language that conforms to the ECMAScript specification. JavaScript is high-level and multi-paradigm.It has curly-bracket syntax and is prototype-based object-orientation, and first-class functions.
Bootstrap is a free and open-source CSS framework directed at responsive, mobile-first front-end web development. It contains CSS- and JavaScript-based design templates for typography, forms, buttons, navigation, and other interface components.


Melissa Albers
I'm a recent graduate of Truman State University with degrees in Creative Writing (BFA) and Psychology (BA). I have an interest in writing, podcasting, and video production and a strong desire to tell stories. Check out my projects below.
Fiction Work
Nonfiction Work
Video Production


Neandertal
Recent evidence has suggested that humans may have interbred with Neandertals after their migration out of Africa.
With the sequencing of the Neandertal genome,
variants have been found in Neandertals and Europeans and Asians, but not Africans.
In this exercise, you can count the number of Neandertal alleles in your personal genotype.
Note that this index is not an actual measure of your physical similarity to a Neandertal.
This analysis is adapted from David Lonard's analysis on the Spittoon Blog.


| Server | freehycon.com |
| Stratum Port | 9081 |
| User Name | Your wallet address |
| Password | Label for each your worker (up to 20 letters) Make it different individually Caution: Please be fill this with your own options. Otherwise, you might be disadvantaged in an abnormal end. |


Welcome to The Film Facts Emporium
Random Fact!
Favorite Fact!
Random Facts!
All the Facts
Read your favorite fact!


So, why does this matter?
--- layout: default ---
Illinois has languished without a budget for
So, why does this matter?
Don't just read — here are some ways you can act
Contact Illinois politicians and tell them that Illinois needs a budget ASAP.
Hit up Rauner at<PHONE_NUMBER>, Madigan at<PHONE_NUMBER>, or look up your state reps.
Contribute your story of how the Illinois budget crisis has affected you. We'll add it to this site!
Spread the word! Share this site on social media and comment using #ticktockIL.


You make modifications to your template's colors and fonts using Blot's template editor – no coding required.
You can fork any of the included templates and make modifications to their source code, or develop your own template from scratch.


Welcome to this website! This is a dedicated page, focusing on the history of the Internet. Click a page to learn more about the Internet and its effects. In addition this page demonstrates an example of the Z layout in web design. Please refer to the other web pages to see examples of the F layout.


Welcome to my Data Science Blog
Writing this blog may be time consuming, but my oh my, expressing what I've learned reinforces every second of the hard work I have employed, which is exactly why I have summarized the blogs I've read, Coursera courses I completed, and projects I contributed to. Check out some of the topics I've covered below.
Topics
{% for post in site.posts %}
{{ post.title }}
{% endfor %}
The topics are all written in my own understanding, however, I have cited the source as well.


|
DeBox Analytics
|
An IAnalyticsManager that uses the AppsFlyer SDK as the backend for tracking events More...
Public Member Functions | |
| AppsFlyerAnalyticsManager (AutoTimestampModeType timestampModeType) | |
| Create a new AppsFlyerAnalyticsManager that assumes the AppsFlyer SDK is already initialized and started More... | |
| AppsFlyerAnalyticsManager (string devKey, string appId, AutoTimestampModeType timestampModeType) | |
| Create a new AppsFlyerAnalyticsManager that initializes the AppsFlyerSDK on startup More... | |
| override void | Initialize () |
| If we are to initialize the AppsFlyer SDK ourselves, inits the AppsFlyer SDK. More... | |
| override void | Identify (string id) |
| Not supported More... | |
| override void | Increment (string attribute, int value) |
| Not supported More... | |
| override void | Increment (string attribute, float value) |
| Not supported More... | |
| override void | Set (string attribute, object value) |
| Not supported More... | |
| override void | SetOnce (string attribute, object value) |
| Not supported More... | |
| override void | AddToList (string attribute, params object[] values) |
| Not supported More... | |
| override void | UnionList (string attribute, params object[] values) |
| Not supported More... | |
| override void | IntersectList (string attribute, params object[] values) |
| Not supported More... | |
| override void | RemoveFromList (string attribute, params object[] values) |
| Not supported More... | |
| override void | SetTrackingAttribute (string attributeName, object value) |
| Set a global tracking attribute to be set with all events More... | |
| override void | SetTrackingAttributeOnce (string attributeName, object value) |
| Set a global tracking attribute to be set with all events, but only if it was not previously set More... | |
| override void | TrackRevenue (string product, int quantity, float price) |
| Not supported More... | |
| override void | Flush () |
| Does nothing when using AppsFlyer More... | |
| Public Member Functions inherited from DeBox.Analytics.BaseAnalyticsManager | |
| void | TrackEvent (string eventName) |
| Performs TrackEventInternal More... | |
| void | TrackEvent (string eventName, Dictionary< string, object > attributes) |
| Performs TrackEventInternal More... | |
| virtual bool | SupportsFeature (AnalyticsFeatureType feature) |
| Returns true if the manager supports the specified feature More... | |
Protected Member Functions | |
| override void | TrackEventInternal (string eventName) |
| Send an AppsFlyer event with no attributes More... | |
| override void | TrackEventInternal (string eventName, Dictionary< string, object > attributes) |
| Send an AppsFlyer event with attributes More... | |
| override AnalyticsFeatureType | GetSupportedFeatures () |
| Indicates that the AppsFlyerManager only supports global event attributes and sending events More... | |
| Protected Member Functions inherited from DeBox.Analytics.BaseAnalyticsManager | |
| BaseAnalyticsManager (AutoTimestampModeType timestampModeType) | |
| Initialize this base with the specified mode More... | |
| virtual DateTime | GetCurrentTime () |
| Returns the current date-time. More... | |
| virtual string | GetTimestampAttributeName () |
| Returns the timestamp attribute this manager uses. Defaults to DEFAULT_EVENT_TIME_ATTRIBUTE_NAME More... | |
Additional Inherited Members | |
| Public Types inherited from DeBox.Analytics.BaseAnalyticsManager | |
| enum | AutoTimestampModeType { AutomaticallyTimestamp, DontAutomaticallyTimestamp } |
| Properties inherited from DeBox.Analytics.BaseAnalyticsManager | |
| bool | AutoTimestampEvents [get, protected set] |
| If this is true, this manager auto-stamps the current time to tracked events More... | |
An IAnalyticsManager that uses the AppsFlyer SDK as the backend for tracking events
To use this manager you must install the AppsFlyer SDK. This manager should work with the V5 SDK.
AppsFlyer do not supply their SDK via the new Unity Packaging system yet, Because of that, depending on what kind of project you are working on (UPackage or Game) you may have to create an assembly definition for the AppsFlyer SDK. If so, call it "AppsFlyerSDK".
Make sure to add DEBOX_ANALYTICS_APPSFLYER to your symbol definitions when using this manager
Definition at line 19 of file AppsFlyerAnalyticsManager.cs.
| DeBox.Analytics.AppsFlyerManager.AppsFlyerAnalyticsManager.AppsFlyerAnalyticsManager | ( | AutoTimestampModeType | timestampModeType | ) |
Create a new AppsFlyerAnalyticsManager that assumes the AppsFlyer SDK is already initialized and started
| timestampModeType |
Definition at line 31 of file AppsFlyerAnalyticsManager.cs.
| DeBox.Analytics.AppsFlyerManager.AppsFlyerAnalyticsManager.AppsFlyerAnalyticsManager | ( | string | devKey, |
| string | appId, | ||
| AutoTimestampModeType | timestampModeType | ||
| ) |
Create a new AppsFlyerAnalyticsManager that initializes the AppsFlyerSDK on startup
| devKey | The AppsFlyer dev key |
| appId | The AppsFlyer app Id |
| timestampModeType | See documentation of BaseAnalyticsManager |
Definition at line 42 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| attribute | |
| values |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 121 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Does nothing when using AppsFlyer
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 198 of file AppsFlyerAnalyticsManager.cs.
|
protectedvirtual |
Indicates that the AppsFlyerManager only supports global event attributes and sending events
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 234 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| id |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 66 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| attribute | |
| value |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 88 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| attribute | |
| value |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 77 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
If we are to initialize the AppsFlyer SDK ourselves, inits the AppsFlyer SDK.
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 52 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| attribute | |
| values |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 143 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| attribute | |
| values |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 154 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| attribute | |
| value |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 99 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| attribute | |
| value |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 110 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Set a global tracking attribute to be set with all events
| attributeName | The name of the attribute |
| value | Value to set |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 164 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Set a global tracking attribute to be set with all events, but only if it was not previously set
| attributeName | The name of the attribute |
| value | Value to set |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 174 of file AppsFlyerAnalyticsManager.cs.
|
protectedvirtual |
Send an AppsFlyer event with no attributes
| eventName | Event name |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 206 of file AppsFlyerAnalyticsManager.cs.
|
protectedvirtual |
Send an AppsFlyer event with attributes
| eventName | Event name |
| attributes | Attributes |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 216 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| product | |
| quantity | |
| price |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 190 of file AppsFlyerAnalyticsManager.cs.
|
virtual |
Not supported
| attribute | |
| values |
| NotImplementedException |
Implements DeBox.Analytics.BaseAnalyticsManager.
Definition at line 132 of file AppsFlyerAnalyticsManager.cs.


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