ATS9462 SDK Sample Programs
AlazarTech SDK version 5.8.2
© 2010 Alazar Technologies, Inc.
Dual-port AutoDMA acquisitions
Dual-port AutoDMA: Continuous streaming mode samples
Dual-port AutoDMA: Triggered streaming mode samples
Dual-port AutoDMA: NPT mode samples
Dual-port AutoDMA: Traditional mode samples
This folder contains sample programs that demonstrate how to make the various types of acquisitions supported by an AlazarTech ATS9462 16-bit 180 MS/s digitizer board with a 4-lane PCIe host bus interface. The sample programs are part of the AlazarTech SDK, and are documented in the “AlazarTech SDK Programmer’s Guide”.
These sample programs should be used with ATS9462 digitizer boards with on-board memory. If your ATS9462 does not have on-board memory, then use the samples in the ATS9462-FIFO directory.
The ATS9462 has a 4-lane PCIe bus interface capable of sustained data transfers of up to 800 MB/s. When the computer is booted, the motherboard and digitizer board negotiate the actual number of PCIe lanes available to the digitizer board and, as a result, its maximum PCIe bus bandwidth. The number of lanes may be limited by the motherboard model, or by the BIOS version. The AlazarSysInfo sample demonstrates how to determine the number of PCIe lanes available to the digitizer board.
Microsoft Visual C++ 6 or Microsoft Visual C++ 2008 is required to build the C/C++ sample programs. Each sample includes a Visual C++ 6 workspace file for 32-bit platforms, and Visual C++ 2008 solution file for 32- and 64-bit platforms.
The AlazarTech ATS9462 drivers version 5.7.7 or later are required to run the sample programs. They can be downloaded from our web site.
http://www.alazartech.com/support/downloads.htm
Many sample programs require a trigger input signal. Connect a 1Vpp, 1 KHz sine from a function generator to the CH A connector of the digitizer board before running these programs. If a suitable trigger signal is not supplied, an acquisition timeout interval will expire before the board receives the number of trigger events required to make the acquisition and, as a result, the acquisition will fail with a timeout error.
The DualPort\NPT_Scan sample program requires a TTL level trigger enable signal connected to the AUX I/O connector. This input acts as a “start of frame” signal, and enables the board to acquire “records per buffer” records in AutoDMA mode. If a suitable trigger enable signal is not supplied, the acquisition timeout interval will expire before the board receives the number of trigger events required to make the acquisition and, as a result, the acquisition will fail with a timeout error.
To get the most from an AlazarTech ATS9462 digitizer board, a programmer should:
1. Read the “ATS9462 User Guide”. It provides an overview of the digitizer board’s hardware features, as well as its specifications.
2. Read the “AlazarTech SDK Programmer’s Guide”. It describes how to program the digitizer hardware to make an acquisition, and to transfer sample data into application buffers.
3. Use the SDK sample programs. They demonstrate how to make most types of acquisitions, and provide a starting point for creating new applications.
A single-port acquisition allows a board to acquire to on-board memory and, after the acquisition is complete, transfer sample data from on-board memory to application buffers.
Single-port acquisitions should be used when:
· The application can tolerate missing trigger events while it transfers data from on-board memory, and re-arms a board for another acquisition.
· The average data acquisition data rate that is greater than the maximum PCIe bus transfer rate.
Single-port acquisitions should not be used for imaging applications such as: ultrasonic testing, OCT, RADAR, and LIDAR. These applications should use Dual-port AutoDMA acquisitions described below.
The samples in the “SinglePort” directory demonstrate how to make single-port acquisitions. Most programmers should begin with the “SinglePort\AR” sample.
|
Directory |
Description |
|
SinglePort\AR |
This sample acquires records to on-board memory, and calls AlazarRead to transfer entire records from on-board memory to an application buffer. It demonstrates a basic single-port acquisition in C/C++ environments. |
|
SingelPort\AR_GetTriggerAddress |
Based on “SinglePort\AR”, this sample adds code to call AlazarGetTriggerAddress to obtain record timestamps. It demonstrates how to find the trigger timestamp, in seconds, of each record in a single-port acquisition. |
|
SinglePort\AR_MasterSlave |
Based on “SinglePort\AR”, this sample adds code to acquire from a master-slave board system. It demonstrates how to make a single-port acquisition with a master-slave board system. |
|
SinglePort\AR_Segments |
Based on “SinglePort\AR, this sample adds code to divide a record acquired to on-board memory into segments, and transfer these segments to application buffers. It demonstrates how an application can word with records in on-board memory when they are too large to fit completely in an application buffer. |
|
SinglePort\AR_Volts |
Based on “SinglePort\AR”, this sample adds code to write sample values in volts to a text file. It demonstrates how convert sample values in a buffer returned by AlazarRead into volts. |
|
SinglePort\HD |
This sample acquires records to on-board memory, and calls AlazarHyperDisp to process the records in on-board memory, and transfer these processed records to an application buffer. It demonstrates how to use the on-board FPGA to preprocess sample data in on-board memory. |
A dual-port AutoDMA acquisition allows a board to acquire to on-board memory while, at the same time, transferring sample data from on-board memory to application buffers.
AutoDMA acquisitions should be used when:
· The average data acquisition data rate that is less than the maximum PCIe bus transfer rate.
· An application cannot miss trigger events that occur while it transfers data to host memory, or re-arms a board for another acquisition.
· An application acquires more sample points or records per acquisition than can be stored in on-board memory.
Scanning applications such as ultrasonic testing, OCT, RADAR, and LIDAR imaging should use AutoDMA acquisitions.
An AutoDMA acquisition is divided into segments. AutoDMA hardware on a board transfers sample data, one segment at a time, from on-board memory to a buffer in host memory. There may be an unlimited number of segments in an AutoDMA acquisition, so a board can be armed to make an acquisition of infinite duration.
There are four AutoDMA acquisition modes.
|
Mode |
Triggered |
Pre-trigger samples |
Record headers |
Description |
|
Yes |
Yes |
Optional |
Acquire multiple records – one per trigger event. Each record may contain samples before and after its trigger event. Each buffer contains one or more records. A record header may optionally precede each record. |
|
|
Yes |
No |
No |
Acquire multiple records – one per trigger event. Each record may contain only samples after its trigger event. Each buffer contains one or more records. |
|
|
No |
No |
No |
Acquire a single, gapless record spanning multiple buffers, where each buffer contains a segment from the record. Do not wait for a trigger event before acquiring the record. |
|
|
Yes |
No |
No |
Acquire a single, gapless record spanning multiple buffers, where each buffer contains a segment from the record. Wait for a trigger event before acquiring the record. |
The sample programs in the “DualPort” directory demonstrate how to make dual-port AutoDMA acquisitions. They are grouped by AutoDMA mode.
The following samples demonstrate how to make an AutoDMA acquisition in continuous streaming mode. Most C/C++ programmers should begin with the “DualPort\CS” sample. LabVIEW and VisualBasic programmers should begin with “Dual\CS_WaitNextBuffer”.
|
Directory |
Description |
|
DualPort\CS |
This sample calls AlazarPostAsyncBuffer and AlazarWaitAsyncBufferComplete to acquire a single record per channel spanning several AutoDMA buffers. It demonstrates how to make an AutoDMA acquisition in C/C++ environments. |
|
DualPort\CS_AsyncRead |
This sample calls AlazarAsyncRead and the WaitForSingleObject to acquire a single record per channel spanning several AutoDMA buffers. It demonstrates how to make an AutoDMA acquisition in C/C++ environment that must wait on an event to be set to the signaled state to determine when an I/O operation is done. |
|
DualPort\CS_CreateStreamFile |
Based on “Dual_Port\CS_WaitNextBuffer”, this sample adds code to save AutoDMA buffers to a file, and to disable the API from copying sample data to an application buffer. It demonstrates the steps required to create a high-performance disk streaming application in high-level environments such as LabVIEW and Visual Basic. |
|
DualPort\CS_MasterSlave |
Based on “DualPort\CS”, this sample adds code to acquire from a master-slave board system. It demonstrates how to make a continuous streaming AutoDMA acquisition with a master-slave board system. |
|
DualPort\CS_WaitNextBuffer |
This sample uses ADMA_ALLOC_BUFFERS and calls AlazarWaitNextAsyncBufferComplete to acquire a single continuous record per channel spanning several AutoDMA buffers. It demonstrates the steps required to make an AutoDMA acquisition in high-level environments such as LabVIEW or Visual Basic. |
The following samples demonstrate how to make an AutoDMA acquisition in triggered streaming mode. C/C++ programmers should begin with the “DualPort\TS” sample. LabVIEW and VisualBasic programmers should begin with “Dual\TS_WaitNextBuffer”.
|
Directory |
Description |
|
DualPort\TS |
This sample calls AlazarPostAsyncBuffer and AlazarWaitAsyncBufferComplete to acquire a single, gapless record per channel spanning several AutoDMA buffers. It demonstrates a basic AutoDMA acquisition in C/C++ environments. |
|
DualPort\TS_DisableFileCache |
Based on “DualPort\TS”, this sample adds code to call CreateFile with FILE_FLAG_NO_BUFFERING to save AutoDMA buffers to a binary file. It demonstrates how to write a high-performance disk streaming application in C/C++ environments. |
|
DualPort\TS_MasterSlave |
Based on “DualPort\TS”, this sample adds code to acquire from a master-slave board system. It demonstrates how to make a triggered streaming acquisition with a master-slave board system. |
|
DualPort\TS_WaitNextBuffer |
This sample uses ADMA_ALLOC_BUFFERS and calls AlazarWaitNextAsyncBufferComplete to acquire a single continuous record per channel spanning several AutoDMA buffers. It demonstrates the steps required to make an AutoDMA acquisition in high-level environments such as LabVIEW or Visual Basic. |
The following samples demonstrate how to make an AutoDMA acquisition in NPT (No-PreTrigger samples) mode. C/C++ programmers should begin with the “DualPort\NPT” sample. LabVIEW and VisualBasic programmers should begin with “Dual\NPT_WaitNextBuffer”.
|
Directory |
Description |
|
DualPort\NPT |
This sample calls AlazarPostAsyncBuffer and AlazarWaitAsyncBufferComplete to acquire a multiple records per channel – one per trigger event – with one or more records per AutoDMA buffer. It demonstrates a basic AutoDMA acquisition in C/C++ environments. |
|
DualPort\NPT_Infinite |
Based on “DualPort\NPT”, this sample adds to make an acquisition with an infinite number of AutoDMA segments. It demonstrates how software can arm a board once to make an acquisition that may continue in hardware indefinitely. |
|
DualPort\NPT_MasterSlave |
Based on “DualPort\NPT”, this sample adds code acquire from a master-slave board system. It demonstrates how to make an NPT acquisition with a master-slave board system. |
|
DualPort\NPT_Poll |
Based on “DualPort\NPT”, this sample adds code to poll, rather than block, until a board receives sufficient trigger events to fill an AutoDMA buffer. It demonstrates how to implement a polling loop using the AlazarWaitAsyncBufferComplete API function. |
|
DualPort\NPT_Scan |
Based on “DualPort\NPT”, this sample calls AlazarConfigureAuxIO to configure the AUX I/O connector as an AutoDMA trigger enable input. It demonstrates how to implement a scanning application using an AutoDMA acquisition. Note that in scanning applications: “pixels per scan line” translates to “samples per record”, “scan lines per frame” to “records per buffer”, and “AUX I/O trigger enable input” to “start of frame signal”. |
|
DualPort\NPT_WaitNextBuffer |
This sample uses ADMA_ALLOC_BUFERS and calls AlazarWaitNextAsyncBufferComplete to make an NPT mode AutoDMA acquisition. It demonstrates the steps required to make an AutoDMA acquisition in high-level environments such as LabVIEW and Visual Basic. |
The following sample programs demonstrate how to make an AutoDMA acquisition in “traditional” mode. C/C++ programmers should begin with the “DualPort\TR” sample. LabVIEW and VisualBasic programmers should begin with “Dual\TR_WaitNextBuffer”.
|
Directory |
Description |
|
DualPort\TR |
This sample calls AlazarPostAsyncBuffer and AlazarWaitAsyncBufferComplete to acquire a multiple records per channel – one per trigger event – with one or more records per AutoDMA buffer. It demonstrates a basic AutoDMA acquisition in C/C++ environments. |
|
DualPort\TR_Header |
Based on “DualPort\TR”, this sample adds code to enable record headers, and save them to file. It demonstrates how to access record headers in a “traditional” mode AutoDMA acquisition. |
|
DualPort\TR_MasterSlave |
Based on “DualPort\TR”, this sample adds code to acquire from a master-slave board system. It demonstrates how to make a “traditional” mode acquisition with a master-slave board system. |
|
DualPort\TR_Timestamp |
Based on “DualPort\TR_Header”, this sample adds code to extract the trigger timestamp from a record header. It demonstrates how to find the sample timestamp, in seconds, of each sample in an AutoDMA acquisition. |
|
DualPort\TR_Volts |
Based on “DualPort\TR”, this sample adds code to write samples values, in volts, to a text file. It demonstrates how to convert the sample data in a buffer returned by returned by AutoDMA functions into volts. |
|
DualPort\TR_WaitNextBuffer |
This sample uses ADMA_ALLOC_BUFERS and calls AlazarWaitNextAsyncBufferComplete to make a traditional mode AutoDMA acquisition. It demonstrates the steps required to make an AutoDMA acquisition in high-level environments such as LabVIEW and Visual Basic. |
The following sample programs demonstrate how to get information about a board.
|
Directory |
Description |
|
This sample calls a number of status and information API functions to display detailed information about digitizer boards. This information includes: sample size in bits, memory size in samples per channel, serial number, and latest calibration date. It demonstrates how to obtain a board handle, use the status and information API functions, and control the LED on a board’s PCIe mounting bracket. |
|
|
This sample program converts a binary data file containing 2-byte samples to text. Use it to convert the binary sample data files created by the sample programs above into text files that can be imported into other applications for analysis such as Microsoft Excel or Matlab. |
The AcqToDisk.cpp file in the sample sub-directory contains the code to configure a board, make an acquisition, transfer sample data to application buffers, and optionally save sample data to file.
Acquisition parameters should be modified to suite the application. All of the lines containing such parameters are labeled with “TODO” comments. Search for these lines in the source files, and modify them as required.
Microsoft Visual C++ 6
· Open the “AcqToDisk.dsw” project workspace in the sample directory.
· Select “Build | Set Active Configuration” menu command to display the “Select Active Project Configuration” dialog box, and select the “Debug” build or “Release” build as required.
· Select the “Build | Build %APP_NAME%” command to build the sample program.
If a build succeeds, it creates one of the following executables:
|
Debug |
Debug\%APP_NAME%.exe |
|
Release |
Release\%APP_NAME%.exe |
Note that the %APP_NAME% is, by default, the directory name. For example, the output file of the debug build of the “\DualPort\TR_Header” sample is “\DualPort\TR_Header\Debug\TR_Header.exe”.
Microsoft Visual C++ 2008
· Open the “AcqToDisk.sln” solution in the sample directory.
· Select the “Build | Configuration Manager” to display the “Configuration Manager” dialog and select the desired configuration and platform.
· Select the “Build | Build Solution” command to build the sample program.
If a build succeeds, it creates one of the following executables:
|
32-bit Debug |
Win32\Debug\%APP_NAME%.exe |
|
32-bit Release |
Win32\Release\%APP_NAME%.exe |
|
64-bit Debug |
x64\Debug\%APP_NAME%.exe |
|
64-bit Release |
x64\Release\%APP_NAME%.exe |
Note that the %APP_NAME% is, by default, the directory name. For example, the output file of 32-bit debug build of the “\DualPort\TR_Header” sample is “\DualPort\TR_Header\Win32\Debug\TR_Header.exe”.
Please refer to the “AlazarTech SDK Programmer’s Guide” for more information about the using the code in the sample programs. If you have any questions or comments, or need assistance, contact us.
|
Web |
|
|
|
|
|
Phone |
514-426-4899 |
|
Fax |
514-426-2723 |
|
|
Alazar Technologies Inc. 6600 Trans-Canada Highway, Suite 310 Pointe-Claire, QC Canada H9R 4S2 |


Return to color inventory page
UI Elements
- Select image to sample...
- Choose an image to inventory.
- Select a sample size:
- As you mouse over the image, you will see the 9 × 9 area of pixels around the cursor. You can choose to select the color of an individual pixel, or to average the 2 × 2 or 3 × 3 pixel area surrounding the cursor position.
- Colors match when distance between them is...
- When you select a color, the inventory program figures out how many pixels in your image have the “same” color. The item you choose from this menu determines how loose this definition really is. (The larger the distance, the more liberal the definition of “same.”)
- Remove chosen colors from image
- As you select colors, they will be “removed” from the image so you don’t choose them twice.
- Show as...
-
- Proportion of chosen colors
- Let’s say you have an image consisting of a green, yellow, and purple horizontal stripe. The height of the green stripe is 400 pixels, the height of the yellow stripe is 300 pixels, and the height of the purple stripe is 100 pixels. If you select yellow, that’s the only color you have selected so far, so it accounts for 100% of the chosen colors and will fill the entire color inventory. If you then select purple, you now have a total of 500 units; yellow takes up 400 of those 500, so it will fill 80% of the color inventory, and purple will take up 20% of the color bar.
- Proportion of all pixels
- Given the same image as before, if you select yellow, then that color is 300 / 800, or 37.5% of the entire image, so it would take up three eighths of the color inventory beneath the menu. If you then choose purple, it will account for 100 / 800, or 12.5% of the entire image, so it will take up one eighth of the color inventory.
- Non-proportional
- The inventory shows circles filled with the colors you chose.
- Sort by color
- When selected, items in the color inventory are converted to HSV and sorted by hue and then by saturation.
- Show as text
- Displays the colors and proportions in a text area that you can copy and paste. Colors are displayed in the form
rgb(rrr, ggg, bbb)
. - Undo last color addition
- Removes color choices in the reverse order that you made them.
- The color inventory
- If you hover over the colors in the inventory, you will see their RGB values and the percentage of the whole image (or selected colors) that they account for.
- Export SVG
- Exports the color inventory as an SVG file.


Here at Incense Flow, we are all about quality products and excellent customer service. We are an online company selling a wide variety of high-quality incense flow burners and incense flow cones. We make it easy to find and shop for your favorite incense fragrances, ranging from cherry vanilla and green tea to jasmine and eaglewood.
With free shipping over 500, you're sure to find something you love while saving some cash. Our incense flow burners create unique cascading smoke, utilizing specialty high-quality backflow incense cones that create the waterfall flow effect. Our products will comfort and calm you, whether you use incense for a sense of peace and feeling of connection with your inner self or just because you love the smell.


More settings are available to you for the technical configuration of this plan.
- The Azure AD tenant ID for the publisher.
- Authorizations, which are IDs of users or services that should have access to the items in the managed resource group.
- Policy settings for items in the managed resource group. This uses Azure policies.
The technical configuration screen allows the following actions (bottom of page).
- Deployment mode (complete or incremental).
- Adding a webhook URL for events fired by the Managed App provisioning system.
- Customizing allowed actions on the resources in the Managed Resource Group that will be created.
- Add the publisher's Tenant ID.
- The Principal ID of users or other resources (like an Azure function) that will have access to the resources created in the Managed Resource Group.
- Policy settings that you may want to apply to the managed environment.
Click near the top of the screen to scroll up and see more of the Technical configuration page.
Click the "Review and Publish" button at the bottom of the page to review your submission.


void SetCollisionID(s32
cid);
s32 GetCollisionID();
Set and retrieve the collision ID of the animated body. The collision ID, along with the neCollisionTable, determines how the animated body will respond when a collision has occured with other objects in the simulation. See also neCollisionTable.
void SetUserData(u32
userData);
void SetUserData(void
* userData);
neUserData GetUserData();
Set and retrieve the user data property. It is used to store game-specific information associated with the animated body. Data types u32 and void* are available. Being internally stored and returned as neUserData union, only one type can be used at a time.
neV3 GetPos();
void SetPos(const
neV3 & p);
neM3 GetRotationM3();
neQ GetRotationQ();
void SetRotation(const
neM3 & m);
void SetRotation(const
neQ & q);
neT3 GetTransform();
Set and retrieve spatial states for the animated body with these functions.
s32 GetGeometryCount();
neGeometry * AddGeometry();
neBool RemoveGeometry(neGeometry
* g);
void BeginIterateGeometry();
neGeometry * GetNextGeometry();
Use these functions to create and retrieve neGeometry objects for the animated body. The collection neGeometry, belonging to an animated body, defines the body's collision boundary. It also defines the animated body's breaking behaviour. An animated body can also exist without any neGeomtry assigned to it; it just wont collide with anything in the simulation. All neGeometry objects within an animated body will be freed automatcally when the animated body is freed. See also neGeometry.
neRigidBody * BreakGeometry(neGeometry * g);
Breaks off the geometry object, which must belong to the rigid body. Returns the newly created rigid body.
neSensor * AddSensor();
neBool RemoveSensor(neSensor
* s);
void BeginIterateSensor();
neSensor * GetNextSensor();
Use these functions to create and retrieve neSensor objects for the animated body. See neSensor.
void UpdateBoundingInfo();
Update the internal bounding information of the animated body. Whenever the user changes geometry and/or sensors of the animated body, by adding, removing, or modifying geometry and/or sensors, this function needs to be called to update the internal bounding information.
void CollideConnected(neBool
yes);
neBool CollideConnected();
Define whether or not an animated body will collide with another body connected to it via joints (neJoint). The behaviour defined by this function overrides the behaviour defined by the neCollisionTable.
void Active(neBool
yes, neRigidBody * hint
= NULL);
void Active(neBool
yes, neAnimatedBody * hint
= NULL);
neBool Active();
Activate or deactivate the animated body. When an animated body is deactivated, the simulator will not perform a collision test on the animated body.
When activating (yes == true), an optional hint can be supplied. The hint should be a rigid body or an animated body near where the animated body being activated is. This can help speed up the introduction of the new activated animated body into the simulation.


ORGAN TRANSPLANTATION AND PROCUREMENT SYSTEM
“You can’t live a perfect day without doing something for someone who will never be able to repay you.”
-John Wooden
There are far more people in need of transplant than there are people willing to donate an Organ.
WEB MD
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ADMIN PORTAL
Admin's Username
Password
Submit
PUBLIC LOGIN
Public Portal


Easy Internet of Things (IoT) Online Whoopee Cushion
Unfortunately needs a Spark ready Whoopee Cushion
Will put link here when someone makes one
Note: This web form shows your Cored-ID and Access_Token. Do not put it on the internet!
For a safer version of this page using local Storage checkout the github site at
https://github.com/hpssjellis/spark-core-web-page-html-control


Orange_Is_the_New_Black
Orange Is the New Black is the story of Piper Chapman, a woman in her thirties who is sentenced to fifteen months in prison after being convicted of a decade-old crime of transporting money for her drug-dealing girlfriend.


Lexicon BrowserWelcome to the Lexicon Browser. This interface can be used to either browse your lexicon, or clean your corpus while cleaning the lexicon. The Lexicon is automatically trained based on the data in your Corpus, it is more similar to a Mental Lexicon than a Word List or Dictionary. To view examples of the morpheme's usage, hover over any morpheme either in the Precedence Graph where it appears in the context of other morphemes, or in the more traditional list form which congains the Lexicon Nodes as cards below. In the Lexicon Node List you can double click on any card to view/edit the discussion/definition of the lexical item. Click on any text to edit it. |
|
glossersample-quechua |
|
glossersample-cherokee |
glossersample-inuktitut |


Police watchdog denies delaying inquiry into Boris Johnson
by Stefan BosciaThe police watchdog has denied it delayed releasing a report into whether to investigate Boris Johnson for criminal conduct in relation to conflict of interest claims.
The Independent Office for Police Conduct (IOPC) is investigating claims that Johnson used his influence as mayor of London to award a £10,000 grant to American tech entrepreneur Jennifer Arcuri.
Read more: A £100,000 government grant to Jennifer Arcuri was ‘appropriate’ says inquiry
The inquiry is investigating whether Johnson had engaged in “possible criminality” and if a formal criminal investigation should be launched.
The Observer reported today the IOPC was ready to announce the results of the inquiry, but decided to delay the release until after the 12 December general election.
Sources inside the IOPC said senior officials at the police watchdog had a private meeting where they agreed to withhold the inquiry results after the election.
Liberal Democrat London Assembly member Caroline Pidgeon said: ““It raises questions over how independent the IOPC really is and whether the prime minister’s lawyers have been exerting undue pressure.”
However, the IOPC has denied the claim and said that the investigation has not yet been completed.
The inquiry into Johnson’s links with Arcuri is one of four into the pair’s relationship.
One concerned a £100,00 grant given to Arcuri’s company Hacker House earlier this year by the Department of Digital, Culture, Media and Sport (DCMS).
Arcuri’s American company was awarded the grant, despite the fact that the funding was awarded to company’s on the basis that they grow the cyber security sector in the UK.
The DCMS inquiry said awarding the grant to Acruri was “appropriate”, as her company could have grown the cyber security sector internationally by providing “an effective solution that identifies, trains and places candidates into cyber security roles”.
Read more: London Assembly makes way for police watchdog on Boris Johnson investigation
The other two investigations into Arcuri’s relationship with Johnson, one conducted by the London Assembly and one on behalf of mayor of London Sadiq Khan, were recently put on hold.
The IOPC asked for both investigations to be delayed to give precedence to its investigation as it was “assessing possible criminality”.


Table of Contents
Moby-Dick
Etymology.
Extracts
Loomings
The Carpet-Bag
The Spouter-Inn
The Counterpane
Breakfast
The Street
The Chapel
The Pulpit
The Sermon
A Bosom Friend
The Chase—First Day
The Chase—Second Day
The Chase.—Third Day
Epilogue
Table of Contents
Moby-Dick
Etymology.
Extracts
Loomings
The Carpet-Bag
The Spouter-Inn
The Counterpane
Breakfast
The Street
The Chapel
The Pulpit
The Sermon
A Bosom Friend
The Chase—First Day
The Chase—Second Day
The Chase.—Third Day
Epilogue


J.Roberts
About Me
Skills & Experience
Portfolio
Contact
James Roberts
Full Stack Developer
About Me
Computer Sciences & Engineering.
-->
Portfolio
Contact Me


{% extends "base.html" %} {% block content %}
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title: "PAUL MARTO PHOTOGRAPHY EXHIBIT"
date: "2000-01-01 18:07:21 -06:00"
categories:
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subtitle: ""
layout: "free-events"
event-image: "paul-marto.jpg"
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button-type: "register"
tickets-link: ""
registration-info: "Questions?
Please call<PHONE_NUMBER>"
instructor-info: "N/A"
member-cost: "Free"
public-cost: "Garden Admission"
event-notes: ""
tickets-button: "hide"
refund-policy: "hide"
published: false
---
Saturday, July 22 from 1-4PM
Glorious Nature is a stunning, visual journey detailing the beautiful, the wondrous, and the “glorious” that surround us daily. This breathtaking collection of wildlife and nature shots by award winning photographer Paul J. Marto Jr., is designed to awaken something deep within our subconscious; that yearning we all have to connect with our surroundings in a more spiritual way.
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This document attempts to provide a gentle introduction and examples of JSON-LD and to be a companion to the JSON-LD specification.
This document is an experimental work in progress.
JSON-LD [[!JSON-LD]] combines the simplicity, power, and web ubiquity of JSON [[!RFC4627]] with the concepts of Linked Data [[LINKED-DATA]] [[JSON-LD-REQUIREMENTS]]. This document attempts to provide an introduction to the concepts and usage of JSON-LD as well as some examples of how it can be utilized in practice.
The requirements for JSON-LD can be found in [[JSON-LD-REQUIREMENTS]] document and provide some basic definitions for concepts and terms used here. The full specification for JSON-LD can be found in [[JSON-LD]] and is the basis for the examples given here. Please refer to these documents as needed.
The semantic web and linked data are a foundation of knowledge representation. What follows is a high-level view for the purposes of this document. A full discussion of these concepts is out of the scope of this document but see [[JSON-LD-REQUIREMENTS]] for a better description of these concepts. Linked data systems are most often built using the concept of "triples". A single triple is built from a subject, a property, and a value. A collection of these triples can form a graph of data.
Applications processing linked data can do so in a number of ways. One is to access the raw triples. This is very flexible but often is cumbersome. Another is to use some form of graph processing API, of which many variations exist. Another is to create a tree view from a portion of the graph.
JSON-LD combines these features. At a low-level it provides a standardized way to represent linked data in JSON. However, it has been found that much of the lined data that is practically processed in JSON can be converted into tree structures that are more natural to handle. Many programming languages even offer native natural access to tree-like structures and no special APIs are required.
Converting linked data graphs to easily accessible tree structures solves one problem of linked data processing. Another is that in many cases the components of a triple are represented as IRIs. Using long IRIs everywhere to access data is very flexible and has many benefits but from a programming view point is rather unwieldy.
JSON-LD provides the ability to add "context" to the data and "coerce" values into forms that are easier to process. In fact, the end result of good JSON-LD usage is data structures that look like simple JSON but are in fact full linked data graphs. This provides a good deal of power for application developers to convert linked data the are processing into easily manipulatable JSON data.
Throughout this document the examples are based on a theme of processing data for a online store. Linked data uses IRIs to represent types and properties. The examples here will use two root URLs as well as a few simple types and properties. A real linked data system should use a common standard such as the GoodRelations vocabulary.
http://ns.example.com/store#
store
in CURIES.http://store.example.com/
links
in CURIES.store:Store
store:Product
store:Category
store:product
store:Store
property linking to a store:Product
.store:category
store:Product
property linking to a store:Category
.store:price
store:Product
property linking to a price.store:stock
store:Product
property linking to the quantity of the product in stock.FIXME: How should this be organized? Start with basic JSON, add LD? Start with pieces, combine into full doc? Something else?
Let's start by building up a fictitious bike store called "Links Bike Shop".
We've already got our bike store setup at
http://store.example.com/
and are using linked data principles.
Here's some of the URLs:
http://store.example.com/
: The home page of the store.http://store.example.com/products/links-swift-chain
: A chain product.http://store.example.com/products/links-speedy-lube
: A chain lube product.We want to start creating some linked data for this fictitious store and start with rough JSON data on the store itself.
{ "@id": "http://store.example.com/", "@type": "Store", "name": "Links Bike Shop", "description": "The most \"linked\" bike store on earth!" }
That was easy, right? Next let's create some rough data for our two premier products.
{ "@id": "http://store.example.com/products/links-swift-chain", "@type": "Product", "name": "Links Swift Chain", "description": "A fine chain with many links.", "category": [ "http://store.example.com/categories/parts", "http://store.example.com/categories/chains" ], "price": "10.00", "stock": 10 }
{ "@id": "http://store.example.com/products/links-speedy-lube", "@type": "Product", "name": "Links Speedy Lube", "description": "Lubricant for your chain links.", "category": [ "http://store.example.com/categories/lubes", "http://store.example.com/categories/chains" ], "price": "5.00", "stock": 20 }
To make this into a full JSON-LD document we combine the data, add a
@context
, and adjust some values.
{ "@id": "http://store.example.com/", "@type": "Store", "name": "Links Bike Shop", "description": "The most \"linked\" bike store on earth!", "product": [ { "@id": "p:links-swift-chain", "@type": "Product", "name": "Links Swift Chain", "description": "A fine chain with many links.", "category": ["cat:parts", "cat:chains"], "price": "10.00", "stock": 10 }, { "@id": "p:links-speedy-lube", "@type": "Product", "name": "Links Speedy Lube", "description": "Lubricant for your chain links.", "category": ["cat:lube", "cat:chains"], "price": "5.00", "stock": 20 } ], "@context": { "Store": "http://ns.example.com/store#Store", "Product": "http://ns.example.com/store#Product", "product": "http://ns.example.com/store#product", "category": { "@id": "http://ns.example.com/store#category", "@type": "@id" }, "price": "http://ns.example.com/store#price", "stock": "http://ns.example.com/store#stock", "name": "http://purl.org/dc/terms/title", "description": "http://purl.org/dc/terms/description", "p": "http://store.example.com/products/", "cat": "http://store.example.com/category/" } }
The following use cases are motivating in the design of JSON-LD.
JSON-LD provides the ability to take linked data from many different sources and present it to an application in an easy to process JSON format. In many cases the transformation from a linked data graph to a JSON tree makes the data appear to just be a simple JSON structure.
Linked data may be input in a form that an application is not prepared to handle. JSON-LD offers the ability to convert linked data into a form that each application can specify on its own.
JSON-LD is not dependent on any particular source of data. It is possible to convert many types of semantic web formats into JSON-LD. This is one of the classic benefits of the semantic web and its foundation of triples. Depending on the application and where it is used, a source of data may come from many places:
A source-specific processor must convert the data into JSON-LD. In most cases if you can convert a data format into a form of triples, then the conversion into an expanded form of JSON-LD is trivial. Once this has taken place, it is possible to use framing and other JSON-LD processing concepts to convert the data into a form which is easier to process at the application level. This ability allows you process linked data provided in many formats in a standardized way.
FIXME: same triples in JSON-LD, RDFa, Microdata, triples
Many applications wish to access data as if it is a simple tree structure. This is natural in many programming languages and often comes for free without a specialized API. The flexibility of the JSON-LD format and linked data it represents does come with a problem.
FIXME: ex of simple frame features
FIXME: multiple ex of different views into the same source data
FIXME: more complex example


Basics
The following page shows some of the fundamentals of importing compas_fea classes and how to use the main Structure object, including some of the Structure object’s most important high level methods and attributes.
Importing modules and classes
A Python .py file is created for every compas_fea model and analysis, which is where an empty Structure object is first instantiated and then populated with the components needed for the model. To import these components and to also use other helper functions from the core compas or compas_fea packages, import
statements are needed in the first few lines of the Python file. For example, if the user wishes to use a CAD environment for extracting geometry or visualising analysis results, either of the following lines below could be written to use Rhinoceros or Blender.
These imports will make a variety of functions available from the compas_fea.cad.blender and compas_fea.cad.rhino modules.
from compas_fea.cad import rhino # import Rhinoceros support
from compas_fea.cad import blender # import Blender support
It is useful to use packages, modules and functions from the core compas library, especially compas.geometry and compas.datastructure imports to help build the Structure object. Such imports will be seen in a variety of the example models to construct the Structure.
from compas.datastructures import Mesh # make the compas Mesh datastructure available
from compas.geometry import distance_point_point # function to measure distances between two points
There are also many functions from the core compas CAD packages that can be helpful for creating, editing or deleting objects and layers in the CAD workspace:
from compas_blender.utilities import clear_layers # clear all objects from a given layer
from compas_blender.utilities import delete_objects # delete specific objects from the scene
The most important imports will be for retrieving classes from compas_fea.structure, including the main Structure class itself. Imports, like with the main compas library, are always available from the second level, with embedded modules on the third level onwards, pulled up to the second level to enable this. This is particularly useful for all of the classes found in compas_fea.structure, as you do not need to know the package structure beyond this level. The special classes in compas_fea.structure are used to make important objects for the model and will be described in more detail throughout the various tutorial topics. Below are three imports that bring in the GeneralStep, PointLoad and Structure classes.
from compas_fea.structure import GeneralStep
from compas_fea.structure import PointLoad
from compas_fea.structure import Structure
Bringing all of the import considerations together, the top of the .py file might look something like:
from compas.datastructures import Mesh
from compas.geometry import distance_point_point
from compas_rhino.helpers import mesh_from_guid
from compas_fea.cad import rhino
from compas_fea.structure import BucklingStep
from compas_fea.structure import Concrete
from compas_fea.structure import ElementProperties as Properties
from compas_fea.structure import GeneralStep
from compas_fea.structure import GravityLoad
from compas_fea.structure import PointLoad
from compas_fea.structure import RectangularSection
from compas_fea.structure import RollerDisplacementY
from compas_fea.structure import ShellSection
from compas_fea.structure import Steel
from compas_fea.structure import Structure
from compas_fea.structure import TrussSection


Processor Class
Inner class that abstracts away common logic for processing entries. Concrete instances' processingFunction methods get called internally to delegate logic specific to each kind of media.
Constructor
Processor
()
Methods
mediaIsReady
()
public
Used by media to signal they are ready to start receiving logs.
processEntry
()
protected
async
Generic processing logic, common to all types of media. processingFunction gets called internally to delegate logic specific to each kind of media.
Properties
state
String
protected
Indicates to the queue whether the processor is waiting until the media is ready to begin ('waiting'), is ready for more processing ('listening'), or is currently processing a log entry ('busy').


Turkey deports US national as it starts returning ISIL fighters
Turkish official says seven German nationals will be returned on November 14, according to state media.
Turkey has deported a US national who is a member of ISIL, according to a Turkish official, as Ankara said it started repatriating captured fighters belonging to the armed group.
In comments carried on Monday by Turkey's state-run Anadolu Agency, interior ministry spokesperson Ismail Catakli said seven German nationals would be returned on November 14.
More:
-
Turkey's Syria operation: How it unfolded
-
How Turkey's 'Peace Spring' changed dynamics of Syria's war
-
Russia and Turkey begin joint patrols in northeast Syria
Cataki did not immediately provide further information on the suspected members of the Islamic State of Iraq and the Levant (ISIL or ISIS) armed group but said they were being held in deportation centres.
"A foreign terrorist fighter from the United States has been deported from Turkey after the procedures were completed," Anadolu quoted Catakli as saying.
"Travel plans for seven foreign terrorist fighters of German origin at deportation centres have been completed, they will be deported on November 14," he added.
There was no immediate comment by the US or Germany.
On October 9, Turkey launched a military operation across its border into northeast Syria, securing control of a large swath of territory in the region.
Ankara said the offensive was aimed at removing Kurdish fighters it considers "terrorists" from the border region and establishing a safe zone to resettle some of the 3.6 million refugees it hosts on its soil.
In recent weeks, Turkey has criticised Western nations, including the United Kingdom and the Netherlands, for refusing to take back their nationals who had joined ISIL and promised to send back the armed group's fighters - even if their citizenship has been revoked.
Several European countries have stripped ISIL fighters of their nationalities to prevent their return.
Turkish Interior Minister Suleyman Soylu said last week Ankara would begin repatriating those held by Turkey as of Monday.
Soylu did not provide any numbers or say which countries they would be sent back to.
He said about 1,200 foreign ISIL fighters were in Turkish prisons and 287 members, including women and children, were recaptured during Turkey's military offensive into northeast Syria last month.
Turkey's move to transfer ISIL's foreign fighters comes amid Turkish frustration with Western nations that have refused to back Ankara's offensive against the Kurdish-led Syrian Democratic Forces.
The Kurdish People's Protection Units (YPG), seen as a "terrorist group" by Ankara over its ties with outlawed Kurdish fighters on its soil, is the main element of the SDF, which was a leading US ally in beating back ISIL in the region.
The SDF kept thousands of ISIL members in jails across northeast Syria.
Many countries have expressed concerns that the Turkish operation would lead to a resurgence of ISIL. Turkey has rejected those concerns and promised to combat ISIL, which, at its peak, controlled a vast swath of territory across Iraq and Syria, with its allies.


5
1 Hear this word that I take up as a lament over you, house of Israel.
2 The virgin Israel has fallen;
she will rise no more;
she is forsaken on her land;
there is no one to raise her up.
3 For this is what the Lord Yahweh says:
"The city that went out with a thousand will have a hundred left,
and the one that went out with a hundred will have ten left
belonging to the house of Israel."
4 For this is what Yahweh says to the house of Israel:
"Seek me and live!
5 Do not seek Bethel;
nor enter Gilgal;
do not journey to Beersheba.
For Gilgal will surely go into captivity,
and Bethel will have sorrow.
6 Seek Yahweh and live,
or he will break out like fire
in the house of Joseph.
It will devour,
and there will be no one to quench it in Bethel.
7 Those people turn justice into a bitter thing
and throw righteousness down to the ground!"
8 God made the Pleiades and Orion;
he turns darkness into the morning;
he makes the day dark with night
and calls for the waters of the sea;
he pours them out on the face of the earth.
Yahweh is his name!
9 He brings sudden destruction on the strong
so that destruction comes on the fortresses.
10 They hate anyone who corrects them in the city gate,
and they abhor anyone who speaks the truth.
11 Because you trample down the poor
and take portions of wheat from him—
although you have built houses of worked stone,
you will not live in them.
You have delightful vineyards,
but you will not drink their wine.
12 For I know how many are your offenses
and how great are your sins—
you who afflict the just,
take bribes,
and turn aside the needy in the city gate.
13 Therefore any prudent person is silent at such a time,
for it is an evil time.
14 Seek good and not evil,
so that you may live.
So Yahweh, the God of hosts, will really be with you,
as you say he is.
15 Hate evil, love good,
establish justice in the city gate.
Perhaps Yahweh, the God of hosts, will be gracious
to the remnant of Joseph.
16 Therefore, this is what Yahweh says,
the God of hosts, the Lord:
"Wailing will be in all the squares,
and they will say in all the streets,
'Woe! Woe!'
They will call the farmers to mourning
and the mourners to wail.
17 In all vineyards there will be wailing,
for I will pass through your midst,"
says Yahweh.
18 Woe to you who desire the day of Yahweh!
Why do you long for the day of Yahweh?
It will be darkness and not light.
19 As when a man flees from a lion
and a bear meets him,
or he goes in a house and puts his hand on the wall
and a snake bites him.
20 Will not the day of Yahweh be darkness and not light?


(Appears in: LoggingConfiguration)
FormatOptions contains options for the different logging formats.
| Field | Description |
|---|---|
json
*
JSONOptions
|
[Alpha] JSON contains options for logging format "json". Only available when the LoggingAlphaOptions feature gate is enabled. |
(Appears in: FormatOptions)
JSONOptions contains options for logging format "json".
| Field | Description |
|---|---|
splitStream
*
bool
|
[Alpha] SplitStream redirects error messages to stderr while info messages go to stdout, with buffering. The default is to write both to stdout, without buffering. Only available when the LoggingAlphaOptions feature gate is enabled. |
infoBufferSize
*
k8s.io/apimachinery/pkg/api/resource.QuantityValue
|
[Alpha] InfoBufferSize sets the size of the info stream when using split streams. The default is zero, which disables buffering. Only available when the LoggingAlphaOptions feature gate is enabled. |
LogFormatFactory provides support for a certain additional, non-default log format.
(Appears in: KubeletConfiguration)
LoggingConfiguration contains logging options.
| Field | Description |
|---|---|
format
*
string
|
Format Flag specifies the structure of log messages.
default value of format is |
flushFrequency
*
time.Duration
|
Maximum number of nanoseconds (i.e. 1s =<PHONE_NUMBER>) between log flushes. Ignored if the selected logging backend writes log messages without buffering. |
verbosity
*
VerbosityLevel
|
Verbosity is the threshold that determines which log messages are logged. Default is zero which logs only the most important messages. Higher values enable additional messages. Error messages are always logged. |
vmodule
*
VModuleConfiguration
|
VModule overrides the verbosity threshold for individual files. Only supported for "text" log format. |
options
*
FormatOptions
|
[Alpha] Options holds additional parameters that are specific to the different logging formats. Only the options for the selected format get used, but all of them get validated. Only available when the LoggingAlphaOptions feature gate is enabled. |
(Appears in: KubeletConfiguration)
TracingConfiguration provides versioned configuration for OpenTelemetry tracing clients.
| Field | Description |
|---|---|
endpoint
string
|
Endpoint of the collector this component will report traces to. The connection is insecure, and does not currently support TLS. Recommended is unset, and endpoint is the otlp grpc default, localhost:4317. |
samplingRatePerMillion
int32
|
SamplingRatePerMillion is the number of samples to collect per million spans. Recommended is unset. If unset, sampler respects its parent span's sampling rate, but otherwise never samples. |
[]k8s.io/component-base/logs/api/v1.VModuleItem
alias)(Appears in: LoggingConfiguration)
VModuleConfiguration is a collection of individual file names or patterns and the corresponding verbosity threshold.
uint32
alias)(Appears in: LoggingConfiguration)
VerbosityLevel represents a klog or logr verbosity threshold.
CredentialProviderConfig is the configuration containing information about each exec credential provider. Kubelet reads this configuration from disk and enables each provider as specified by the CredentialProvider type.
| Field | Description |
|---|---|
apiVersion string |
kubelet.config.k8s.io/v1beta1 |
kind string |
CredentialProviderConfig |
providers
*
[]CredentialProvider
|
providers is a list of credential provider plugins that will be enabled by the kubelet. Multiple providers may match against a single image, in which case credentials from all providers will be returned to the kubelet. If multiple providers are called for a single image, the results are combined. If providers return overlapping auth keys, the value from the provider earlier in this list is used. |
KubeletConfiguration contains the configuration for the Kubelet
| Field | Description |
|---|---|
apiVersion string |
kubelet.config.k8s.io/v1beta1 |
kind string |
KubeletConfiguration |
enableServer
*
bool
|
enableServer enables Kubelet's secured server. Note: Kubelet's insecure port is controlled by the readOnlyPort option. Default: true |
staticPodPath
string
|
staticPodPath is the path to the directory containing local (static) pods to run, or the path to a single static pod file. Default: "" |
syncFrequency
meta/v1.Duration
|
syncFrequency is the max period between synchronizing running containers and config. Default: "1m" |
fileCheckFrequency
meta/v1.Duration
|
fileCheckFrequency is the duration between checking config files for new data. Default: "20s" |
httpCheckFrequency
meta/v1.Duration
|
httpCheckFrequency is the duration between checking http for new data. Default: "20s" |
staticPodURL
string
|
staticPodURL is the URL for accessing static pods to run. Default: "" |
staticPodURLHeader
map[string][]string
|
staticPodURLHeader is a map of slices with HTTP headers to use when accessing the podURL. Default: nil |
address
string
|
address is the IP address for the Kubelet to serve on (set to <IP_ADDRESS> for all interfaces). Default: "<IP_ADDRESS>" |
port
int32
|
port is the port for the Kubelet to serve on. The port number must be between 1 and 65535, inclusive. Default: 10250 |
readOnlyPort
int32
|
readOnlyPort is the read-only port for the Kubelet to serve on with no authentication/authorization. The port number must be between 1 and 65535, inclusive. Setting this field to 0 disables the read-only service. Default: 0 (disabled) |
tlsCertFile
string
|
tlsCertFile is the file containing x509 Certificate for HTTPS. (CA cert, if any, concatenated after server cert). If tlsCertFile and tlsPrivateKeyFile are not provided, a self-signed certificate and key are generated for the public address and saved to the directory passed to the Kubelet's --cert-dir flag. Default: "" |
tlsPrivateKeyFile
string
|
tlsPrivateKeyFile is the file containing x509 private key matching tlsCertFile. Default: "" |
tlsCipherSuites
[]string
|
tlsCipherSuites is the list of allowed cipher suites for the server. Values are from tls package constants (https://golang.org/pkg/crypto/tls/#pkg-constants). Default: nil |
tlsMinVersion
string
|
tlsMinVersion is the minimum TLS version supported. Values are from tls package constants (https://golang.org/pkg/crypto/tls/#pkg-constants). Default: "" |
rotateCertificates
bool
|
rotateCertificates enables client certificate rotation. The Kubelet will request a new certificate from the certificates.k8s.io API. This requires an approver to approve the certificate signing requests. Default: false |
serverTLSBootstrap
bool
|
serverTLSBootstrap enables server certificate bootstrap. Instead of self signing a serving certificate, the Kubelet will request a certificate from the 'certificates.k8s.io' API. This requires an approver to approve the certificate signing requests (CSR). The RotateKubeletServerCertificate feature must be enabled when setting this field. Default: false |
authentication
KubeletAuthentication
|
authentication specifies how requests to the Kubelet's server are authenticated. Defaults: anonymous: enabled: false webhook: enabled: true cacheTTL: "2m" |
authorization
KubeletAuthorization
|
authorization specifies how requests to the Kubelet's server are authorized. Defaults: mode: Webhook webhook: cacheAuthorizedTTL: "5m" cacheUnauthorizedTTL: "30s" |
registryPullQPS
int32
|
registryPullQPS is the limit of registry pulls per second. The value must not be a negative number. Setting it to 0 means no limit. Default: 5 |
registryBurst
int32
|
registryBurst is the maximum size of bursty pulls, temporarily allows pulls to burst to this number, while still not exceeding registryPullQPS. The value must not be a negative number. Only used if registryPullQPS is greater than 0. Default: 10 |
eventRecordQPS
int32
|
eventRecordQPS is the maximum event creations per second. If 0, there is no limit enforced. The value cannot be a negative number. Default: 5 |
eventBurst
int32
|
eventBurst is the maximum size of a burst of event creations, temporarily allows event creations to burst to this number, while still not exceeding eventRecordQPS. This field canot be a negative number and it is only used when eventRecordQPS > 0. Default: 10 |
enableDebuggingHandlers
bool
|
enableDebuggingHandlers enables server endpoints for log access and local running of containers and commands, including the exec, attach, logs, and portforward features. Default: true |
enableContentionProfiling
bool
|
enableContentionProfiling enables lock contention profiling, if enableDebuggingHandlers is true. Default: false |
healthzPort
int32
|
healthzPort is the port of the localhost healthz endpoint (set to 0 to disable). A valid number is between 1 and 65535. Default: 10248 |
healthzBindAddress
string
|
healthzBindAddress is the IP address for the healthz server to serve on. Default: "<IP_ADDRESS>" |
oomScoreAdj
int32
|
oomScoreAdj is The oom-score-adj value for kubelet process. Values must be within the range [-1000, 1000]. Default: -999 |
clusterDomain
string
|
clusterDomain is the DNS domain for this cluster. If set, kubelet will configure all containers to search this domain in addition to the host's search domains. Default: "" |
clusterDNS
[]string
|
clusterDNS is a list of IP addresses for the cluster DNS server. If set, kubelet will configure all containers to use this for DNS resolution instead of the host's DNS servers. Default: nil |
streamingConnectionIdleTimeout
meta/v1.Duration
|
streamingConnectionIdleTimeout is the maximum time a streaming connection can be idle before the connection is automatically closed. Default: "4h" |
nodeStatusUpdateFrequency
meta/v1.Duration
|
nodeStatusUpdateFrequency is the frequency that kubelet computes node status. If node lease feature is not enabled, it is also the frequency that kubelet posts node status to master. Note: When node lease feature is not enabled, be cautious when changing the constant, it must work with nodeMonitorGracePeriod in nodecontroller. Default: "10s" |
nodeStatusReportFrequency
meta/v1.Duration
|
nodeStatusReportFrequency is the frequency that kubelet posts node status to master if node status does not change. Kubelet will ignore this frequency and post node status immediately if any change is detected. It is only used when node lease feature is enabled. nodeStatusReportFrequency's default value is 5m. But if nodeStatusUpdateFrequency is set explicitly, nodeStatusReportFrequency's default value will be set to nodeStatusUpdateFrequency for backward compatibility. Default: "5m" |
nodeLeaseDurationSeconds
int32
|
nodeLeaseDurationSeconds is the duration the Kubelet will set on its corresponding Lease. NodeLease provides an indicator of node health by having the Kubelet create and periodically renew a lease, named after the node, in the kube-node-lease namespace. If the lease expires, the node can be considered unhealthy. The lease is currently renewed every 10s, per KEP-0009. In the future, the lease renewal interval may be set based on the lease duration. The field value must be greater than 0. Default: 40 |
imageMinimumGCAge
meta/v1.Duration
|
imageMinimumGCAge is the minimum age for an unused image before it is garbage collected. Default: "2m" |
imageGCHighThresholdPercent
int32
|
imageGCHighThresholdPercent is the percent of disk usage after which image garbage collection is always run. The percent is calculated by dividing this field value by 100, so this field must be between 0 and 100, inclusive. When specified, the value must be greater than imageGCLowThresholdPercent. Default: 85 |
imageGCLowThresholdPercent
int32
|
imageGCLowThresholdPercent is the percent of disk usage before which image garbage collection is never run. Lowest disk usage to garbage collect to. The percent is calculated by dividing this field value by 100, so the field value must be between 0 and 100, inclusive. When specified, the value must be less than imageGCHighThresholdPercent. Default: 80 |
volumeStatsAggPeriod
meta/v1.Duration
|
volumeStatsAggPeriod is the frequency for calculating and caching volume disk usage for all pods. Default: "1m" |
kubeletCgroups
string
|
kubeletCgroups is the absolute name of cgroups to isolate the kubelet in Default: "" |
systemCgroups
string
|
systemCgroups is absolute name of cgroups in which to place all non-kernel processes that are not already in a container. Empty for no container. Rolling back the flag requires a reboot. The cgroupRoot must be specified if this field is not empty. Default: "" |
cgroupRoot
string
|
cgroupRoot is the root cgroup to use for pods. This is handled by the container runtime on a best effort basis. |
cgroupsPerQOS
bool
|
cgroupsPerQOS enable QoS based CGroup hierarchy: top level CGroups for QoS classes and all Burstable and BestEffort Pods are brought up under their specific top level QoS CGroup. Default: true |
cgroupDriver
string
|
cgroupDriver is the driver kubelet uses to manipulate CGroups on the host (cgroupfs or systemd). Default: "cgroupfs" |
cpuManagerPolicy
string
|
cpuManagerPolicy is the name of the policy to use. Requires the CPUManager feature gate to be enabled. Default: "None" |
cpuManagerPolicyOptions
map[string]string
|
cpuManagerPolicyOptions is a set of key=value which allows to set extra options to fine tune the behaviour of the cpu manager policies. Requires both the "CPUManager" and "CPUManagerPolicyOptions" feature gates to be enabled. Default: nil |
cpuManagerReconcilePeriod
meta/v1.Duration
|
cpuManagerReconcilePeriod is the reconciliation period for the CPU Manager. Requires the CPUManager feature gate to be enabled. Default: "10s" |
memoryManagerPolicy
string
|
memoryManagerPolicy is the name of the policy to use by memory manager. Requires the MemoryManager feature gate to be enabled. Default: "none" |
topologyManagerPolicy
string
|
topologyManagerPolicy is the name of the topology manager policy to use. Valid values include:
Policies other than "none" require the TopologyManager feature gate to be enabled. Default: "none" |
topologyManagerScope
string
|
topologyManagerScope represents the scope of topology hint generation that topology manager requests and hint providers generate. Valid values include:
"pod" scope requires the TopologyManager feature gate to be enabled. Default: "container" |
topologyManagerPolicyOptions
map[string]string
|
TopologyManagerPolicyOptions is a set of key=value which allows to set extra options to fine tune the behaviour of the topology manager policies. Requires both the "TopologyManager" and "TopologyManagerPolicyOptions" feature gates to be enabled. Default: nil |
qosReserved
map[string]string
|
qosReserved is a set of resource name to percentage pairs that specify the minimum percentage of a resource reserved for exclusive use by the guaranteed QoS tier. Currently supported resources: "memory" Requires the QOSReserved feature gate to be enabled. Default: nil |
runtimeRequestTimeout
meta/v1.Duration
|
runtimeRequestTimeout is the timeout for all runtime requests except long running requests - pull, logs, exec and attach. Default: "2m" |
hairpinMode
string
|
hairpinMode specifies how the Kubelet should configure the container bridge for hairpin packets. Setting this flag allows endpoints in a Service to loadbalance back to themselves if they should try to access their own Service. Values:
Generally, one must set |
maxPods
int32
|
maxPods is the maximum number of Pods that can run on this Kubelet. The value must be a non-negative integer. Default: 110 |
podCIDR
string
|
podCIDR is the CIDR to use for pod IP addresses, only used in standalone mode. In cluster mode, this is obtained from the control plane. Default: "" |
podPidsLimit
int64
|
podPidsLimit is the maximum number of PIDs in any pod. Default: -1 |
resolvConf
string
|
resolvConf is the resolver configuration file used as the basis for the container DNS resolution configuration. If set to the empty string, will override the default and effectively disable DNS lookups. Default: "/etc/resolv.conf" |
runOnce
bool
|
runOnce causes the Kubelet to check the API server once for pods, run those in addition to the pods specified by static pod files, and exit. Default: false |
cpuCFSQuota
bool
|
cpuCFSQuota enables CPU CFS quota enforcement for containers that specify CPU limits. Default: true |
cpuCFSQuotaPeriod
meta/v1.Duration
|
cpuCFSQuotaPeriod is the CPU CFS quota period value, |
nodeStatusMaxImages
int32
|
nodeStatusMaxImages caps the number of images reported in Node.status.images. The value must be greater than -2. Note: If -1 is specified, no cap will be applied. If 0 is specified, no image is returned. Default: 50 |
maxOpenFiles
int64
|
maxOpenFiles is Number of files that can be opened by Kubelet process. The value must be a non-negative number. Default: 1000000 |
contentType
string
|
contentType is contentType of requests sent to apiserver. Default: "application/vnd.kubernetes.protobuf" |
kubeAPIQPS
int32
|
kubeAPIQPS is the QPS to use while talking with kubernetes apiserver. Default: 5 |
kubeAPIBurst
int32
|
kubeAPIBurst is the burst to allow while talking with kubernetes API server. This field cannot be a negative number. Default: 10 |
serializeImagePulls
bool
|
serializeImagePulls when enabled, tells the Kubelet to pull images one at a time. We recommend not changing the default value on nodes that run docker daemon with version < 1.9 or an Aufs storage backend. Issue #10959 has more details. Default: true |
evictionHard
map[string]string
|
evictionHard is a map of signal names to quantities that defines hard eviction
thresholds. For example: |
evictionSoft
map[string]string
|
evictionSoft is a map of signal names to quantities that defines soft eviction thresholds.
For example: |
evictionSoftGracePeriod
map[string]string
|
evictionSoftGracePeriod is a map of signal names to quantities that defines grace
periods for each soft eviction signal. For example: |
evictionPressureTransitionPeriod
meta/v1.Duration
|
evictionPressureTransitionPeriod is the duration for which the kubelet has to wait before transitioning out of an eviction pressure condition. Default: "5m" |
evictionMaxPodGracePeriod
int32
|
evictionMaxPodGracePeriod is the maximum allowed grace period (in seconds) to use when terminating pods in response to a soft eviction threshold being met. This value effectively caps the Pod's terminationGracePeriodSeconds value during soft evictions. Note: Due to issue #64530, the behavior has a bug where this value currently just overrides the grace period during soft eviction, which can increase the grace period from what is set on the Pod. This bug will be fixed in a future release. Default: 0 |
evictionMinimumReclaim
map[string]string
|
evictionMinimumReclaim is a map of signal names to quantities that defines minimum reclaims,
which describe the minimum amount of a given resource the kubelet will reclaim when
performing a pod eviction while that resource is under pressure.
For example: |
podsPerCore
int32
|
podsPerCore is the maximum number of pods per core. Cannot exceed maxPods. The value must be a non-negative integer. If 0, there is no limit on the number of Pods. Default: 0 |
enableControllerAttachDetach
bool
|
enableControllerAttachDetach enables the Attach/Detach controller to manage attachment/detachment of volumes scheduled to this node, and disables kubelet from executing any attach/detach operations. Note: attaching/detaching CSI volumes is not supported by the kubelet, so this option needs to be true for that use case. Default: true |
protectKernelDefaults
bool
|
protectKernelDefaults, if true, causes the Kubelet to error if kernel flags are not as it expects. Otherwise the Kubelet will attempt to modify kernel flags to match its expectation. Default: false |
makeIPTablesUtilChains
bool
|
makeIPTablesUtilChains, if true, causes the Kubelet ensures a set of iptables rules are present on host. These rules will serve as utility rules for various components, e.g. kube-proxy. The rules will be created based on iptablesMasqueradeBit and iptablesDropBit. Default: true |
iptablesMasqueradeBit
int32
|
iptablesMasqueradeBit is the bit of the iptables fwmark space to mark for SNAT. Values must be within the range [0, 31]. Must be different from other mark bits. Warning: Please match the value of the corresponding parameter in kube-proxy. TODO: clean up IPTablesMasqueradeBit in kube-proxy. Default: 14 |
iptablesDropBit
int32
|
iptablesDropBit is the bit of the iptables fwmark space to mark for dropping packets. Values must be within the range [0, 31]. Must be different from other mark bits. Default: 15 |
featureGates
map[string]bool
|
featureGates is a map of feature names to bools that enable or disable experimental features. This field modifies piecemeal the built-in default values from "k8s.io/kubernetes/pkg/features/kube_features.go". Default: nil |
failSwapOn
bool
|
failSwapOn tells the Kubelet to fail to start if swap is enabled on the node. Default: true |
memorySwap
MemorySwapConfiguration
|
memorySwap configures swap memory available to container workloads. |
containerLogMaxSize
string
|
containerLogMaxSize is a quantity defining the maximum size of the container log file before it is rotated. For example: "5Mi" or "256Ki". Default: "10Mi" |
containerLogMaxFiles
int32
|
containerLogMaxFiles specifies the maximum number of container log files that can be present for a container. Default: 5 |
configMapAndSecretChangeDetectionStrategy
ResourceChangeDetectionStrategy
|
configMapAndSecretChangeDetectionStrategy is a mode in which ConfigMap and Secret managers are running. Valid values include:
Default: "Watch" |
systemReserved
map[string]string
|
systemReserved is a set of ResourceName=ResourceQuantity (e.g. cpu=200m,memory=150G) pairs that describe resources reserved for non-kubernetes components. Currently only cpu and memory are supported. See http://kubernetes.io/docs/user-guide/compute-resources for more detail. Default: nil |
kubeReserved
map[string]string
|
kubeReserved is a set of ResourceName=ResourceQuantity (e.g. cpu=200m,memory=150G) pairs that describe resources reserved for kubernetes system components. Currently cpu, memory and local storage for root file system are supported. See https://kubernetes.io/docs/concepts/configuration/manage-resources-containers/ for more details. Default: nil |
reservedSystemCPUs
*
string
|
The reservedSystemCPUs option specifies the CPU list reserved for the host level system threads and kubernetes related threads. This provide a "static" CPU list rather than the "dynamic" list by systemReserved and kubeReserved. This option does not support systemReservedCgroup or kubeReservedCgroup. |
showHiddenMetricsForVersion
string
|
showHiddenMetricsForVersion is the previous version for which you want to show
hidden metrics.
Only the previous minor version is meaningful, other values will not be allowed.
The format is |
systemReservedCgroup
string
|
systemReservedCgroup helps the kubelet identify absolute name of top level CGroup used
to enforce |
kubeReservedCgroup
string
|
kubeReservedCgroup helps the kubelet identify absolute name of top level CGroup used
to enforce |
enforceNodeAllocatable
[]string
|
This flag specifies the various Node Allocatable enforcements that Kubelet needs to perform.
This flag accepts a list of options. Acceptable options are |
allowedUnsafeSysctls
[]string
|
A comma separated whitelist of unsafe sysctls or sysctl patterns (ending in |
volumePluginDir
string
|
volumePluginDir is the full path of the directory in which to search for additional third party volume plugins. Default: "/usr/libexec/kubernetes/kubelet-plugins/volume/exec/" |
providerID
string
|
providerID, if set, sets the unique ID of the instance that an external provider (i.e. cloudprovider) can use to identify a specific node. Default: "" |
kernelMemcgNotification
bool
|
kernelMemcgNotification, if set, instructs the kubelet to integrate with the kernel memcg notification for determining if memory eviction thresholds are exceeded rather than polling. Default: false |
logging
*
LoggingConfiguration
|
logging specifies the options of logging. Refer to Logs Options for more information. Default: Format: text |
enableSystemLogHandler
bool
|
enableSystemLogHandler enables system logs via web interface host:port/logs/ Default: true |
shutdownGracePeriod
meta/v1.Duration
|
shutdownGracePeriod specifies the total duration that the node should delay the shutdown and total grace period for pod termination during a node shutdown. Default: "0s" |
shutdownGracePeriodCriticalPods
meta/v1.Duration
|
shutdownGracePeriodCriticalPods specifies the duration used to terminate critical pods during a node shutdown. This should be less than shutdownGracePeriod. For example, if shutdownGracePeriod=30s, and shutdownGracePeriodCriticalPods=10s, during a node shutdown the first 20 seconds would be reserved for gracefully terminating normal pods, and the last 10 seconds would be reserved for terminating critical pods. Default: "0s" |
shutdownGracePeriodByPodPriority
[]ShutdownGracePeriodByPodPriority
|
shutdownGracePeriodByPodPriority specifies the shutdown grace period for Pods based on their associated priority class value. When a shutdown request is received, the Kubelet will initiate shutdown on all pods running on the node with a grace period that depends on the priority of the pod, and then wait for all pods to exit. Each entry in the array represents the graceful shutdown time a pod with a priority class value that lies in the range of that value and the next higher entry in the list when the node is shutting down. For example, to allow critical pods 10s to shutdown, priority>=10000 pods 20s to shutdown, and all remaining pods 30s to shutdown. shutdownGracePeriodByPodPriority:
The time the Kubelet will wait before exiting will at most be the maximum of all shutdownGracePeriodSeconds for each priority class range represented on the node. When all pods have exited or reached their grace periods, the Kubelet will release the shutdown inhibit lock. Requires the GracefulNodeShutdown feature gate to be enabled. This configuration must be empty if either ShutdownGracePeriod or ShutdownGracePeriodCriticalPods is set. Default: nil |
reservedMemory
[]MemoryReservation
|
reservedMemory specifies a comma-separated list of memory reservations for NUMA nodes. The parameter makes sense only in the context of the memory manager feature. The memory manager will not allocate reserved memory for container workloads. For example, if you have a NUMA0 with 10Gi of memory and the reservedMemory was specified to reserve 1Gi of memory at NUMA0, the memory manager will assume that only 9Gi is available for allocation. You can specify a different amount of NUMA node and memory types. You can omit this parameter at all, but you should be aware that the amount of reserved memory from all NUMA nodes should be equal to the amount of memory specified by the node allocatable. If at least one node allocatable parameter has a non-zero value, you will need to specify at least one NUMA node. Also, avoid specifying:
Default: nil |
enableProfilingHandler
bool
|
enableProfilingHandler enables profiling via web interface host:port/debug/pprof/ Default: true |
enableDebugFlagsHandler
bool
|
enableDebugFlagsHandler enables flags endpoint via web interface host:port/debug/flags/v Default: true |
seccompDefault
bool
|
SeccompDefault enables the use of |
memoryThrottlingFactor
float64
|
MemoryThrottlingFactor specifies the factor multiplied by the memory limit or node allocatable memory when setting the cgroupv2 memory.high value to enforce MemoryQoS. Decreasing this factor will set lower high limit for container cgroups and put heavier reclaim pressure while increasing will put less reclaim pressure. See https://kep.k8s.io/2570 for more details. Default: 0.8 |
registerWithTaints
[]core/v1.Taint
|
registerWithTaints are an array of taints to add to a node object when the kubelet registers itself. This only takes effect when registerNode is true and upon the initial registration of the node. Default: nil |
registerNode
bool
|
registerNode enables automatic registration with the apiserver. Default: true |
tracing
TracingConfiguration
|
Tracing specifies the versioned configuration for OpenTelemetry tracing clients. See https://kep.k8s.io/2832 for more details. |
localStorageCapacityIsolation
bool
|
LocalStorageCapacityIsolation enables local ephemeral storage isolation feature. The default setting is true. This feature allows users to set request/limit for container's ephemeral storage and manage it in a similar way as cpu and memory. It also allows setting sizeLimit for emptyDir volume, which will trigger pod eviction if disk usage from the volume exceeds the limit. This feature depends on the capability of detecting correct root file system disk usage. For certain systems, such as kind rootless, if this capability cannot be supported, the feature LocalStorageCapacityIsolation should be disabled. Once disabled, user should not set request/limit for container's ephemeral storage, or sizeLimit for emptyDir. Default: true |
SerializedNodeConfigSource allows us to serialize v1.NodeConfigSource. This type is used internally by the Kubelet for tracking checkpointed dynamic configs. It exists in the kubeletconfig API group because it is classified as a versioned input to the Kubelet.
| Field | Description |
|---|---|
apiVersion string |
kubelet.config.k8s.io/v1beta1 |
kind string |
SerializedNodeConfigSource |
source
core/v1.NodeConfigSource
|
source is the source that we are serializing. |
(Appears in: CredentialProviderConfig)
CredentialProvider represents an exec plugin to be invoked by the kubelet. The plugin is only invoked when an image being pulled matches the images handled by the plugin (see matchImages).
| Field | Description |
|---|---|
name
*
string
|
name is the required name of the credential provider. It must match the name of the provider executable as seen by the kubelet. The executable must be in the kubelet's bin directory (set by the --image-credential-provider-bin-dir flag). |
matchImages
*
[]string
|
matchImages is a required list of strings used to match against images in order to determine if this provider should be invoked. If one of the strings matches the requested image from the kubelet, the plugin will be invoked and given a chance to provide credentials. Images are expected to contain the registry domain and URL path. Each entry in matchImages is a pattern which can optionally contain a port and a path. Globs can be used in the domain, but not in the port or the path. Globs are supported as subdomains like '.k8s.io' or 'k8s..io', and top-level-domains such as 'k8s.'. Matching partial subdomains like 'app.k8s.io' is also supported. Each glob can only match a single subdomain segment, so *.io does not match *.k8s.io. A match exists between an image and a matchImage when all of the below are true:
Example values of matchImages:
|
defaultCacheDuration
*
meta/v1.Duration
|
defaultCacheDuration is the default duration the plugin will cache credentials in-memory if a cache duration is not provided in the plugin response. This field is required. |
apiVersion
*
string
|
Required input version of the exec CredentialProviderRequest. The returned CredentialProviderResponse MUST use the same encoding version as the input. Current supported values are:
|
args
[]string
|
Arguments to pass to the command when executing it. |
env
[]ExecEnvVar
|
Env defines additional environment variables to expose to the process. These are unioned with the host's environment, as well as variables client-go uses to pass argument to the plugin. |
(Appears in: CredentialProvider)
ExecEnvVar is used for setting environment variables when executing an exec-based credential plugin.
| Field | Description |
|---|---|
name
*
string
|
|
value
*
string
|
(Appears in: KubeletAuthentication)
| Field | Description |
|---|---|
enabled
bool
|
enabled allows anonymous requests to the kubelet server.
Requests that are not rejected by another authentication method are treated as
anonymous requests.
Anonymous requests have a username of |
(Appears in: KubeletConfiguration)
| Field | Description |
|---|---|
x509
KubeletX509Authentication
|
x509 contains settings related to x509 client certificate authentication. |
webhook
KubeletWebhookAuthentication
|
webhook contains settings related to webhook bearer token authentication. |
anonymous
KubeletAnonymousAuthentication
|
anonymous contains settings related to anonymous authentication. |
(Appears in: KubeletConfiguration)
| Field | Description |
|---|---|
mode
KubeletAuthorizationMode
|
mode is the authorization mode to apply to requests to the kubelet server.
Valid values are |
webhook
KubeletWebhookAuthorization
|
webhook contains settings related to Webhook authorization. |
string
alias)(Appears in: KubeletAuthorization)
(Appears in: KubeletAuthentication)
| Field | Description |
|---|---|
enabled
bool
|
enabled allows bearer token authentication backed by the tokenreviews.authentication.k8s.io API. |
cacheTTL
meta/v1.Duration
|
cacheTTL enables caching of authentication results |
(Appears in: KubeletAuthorization)
| Field | Description |
|---|---|
cacheAuthorizedTTL
meta/v1.Duration
|
cacheAuthorizedTTL is the duration to cache 'authorized' responses from the webhook authorizer. |
cacheUnauthorizedTTL
meta/v1.Duration
|
cacheUnauthorizedTTL is the duration to cache 'unauthorized' responses from the webhook authorizer. |
(Appears in: KubeletAuthentication)
| Field | Description |
|---|---|
clientCAFile
string
|
clientCAFile is the path to a PEM-encoded certificate bundle. If set, any request presenting a client certificate signed by one of the authorities in the bundle is authenticated with a username corresponding to the CommonName, and groups corresponding to the Organization in the client certificate. |
(Appears in: KubeletConfiguration)
MemoryReservation specifies the memory reservation of different types for each NUMA node
| Field | Description |
|---|---|
numaNode
*
int32
|
|
limits
*
core/v1.ResourceList
|
(Appears in: KubeletConfiguration)
| Field | Description |
|---|---|
swapBehavior
string
|
swapBehavior configures swap memory available to container workloads. May be one of "", "LimitedSwap": workload combined memory and swap usage cannot exceed pod memory limit "UnlimitedSwap": workloads can use unlimited swap, up to the allocatable limit. |
string
alias)(Appears in: KubeletConfiguration)
ResourceChangeDetectionStrategy denotes a mode in which internal managers (secret, configmap) are discovering object changes.
(Appears in: KubeletConfiguration)
ShutdownGracePeriodByPodPriority specifies the shutdown grace period for Pods based on their associated priority class value
| Field | Description |
|---|---|
priority
*
int32
|
priority is the priority value associated with the shutdown grace period |
shutdownGracePeriodSeconds
*
int64
|
shutdownGracePeriodSeconds is the shutdown grace period in seconds |
Generated with genref
on git commit 4247aac7


this left panel should be full width, because no pure.css styles are included
~ buttons ~
this right panel should be full width, because no pure.css styles are included


| DOSE: |
1.0 g |
oral |
Kratom |
(powder / crystals) |
I have tried Kratom on two occasions so far. I ordered 12 grams of 'Kratom Standardized 15x Extract' from my favorite online vendor. The package said something like 'active at just 1G, strong effects at 2G,' so I decided to go with 1G.
Experience #1
Male - age 18
Height - 6'0'
Weight - 130 lb
Dose - not exactly sure. 1 G estimated.
Preparation: I had taken some kava extract throughout the day and only noticed slight relaxation and occasionally fell asleep if sitting down. I emptied out the package on a piece of paper; made the powder into a rectangle with straight sides and uniform height, divided this in half, in half, in thirds. Put this one third into a cup, poured a bit of Gatorade (~5 ml) in, drank, chased, repeat, until all powder was ingested.
[10:00 PM] The powder tastes very bitter. Imagine eating a bag of tea. It's not terrible, but certainly not good. A friend of mine likes the taste.
[12:00] After playing video games for a while, I start to feel strange. I get a pack of pineapple cigars. I'm feeling euphoric and have a blast just talking to people about anything. Very social.
[2:00] I sit in a chair for the next five hours. My body feels incredibly good. Everything seems perfect. I have not tried opiates before, but Iím guessing this is what they feel like. I feel simply amazing.
[5:00] I smoke another cigar. The best cigar Iíve ever had. I feel incredible. It's difficult to explain. I feel wide awake until about 6:30 when my body gives in to being up for 22 hours.
Second experience
Male - age 18
Height - 6'0'
Weight - 130 lb
Dose - 1 gram (I measured out the rest in 1.001-1.003 gram bags.)
Female - age 17 - 'D'
Height - 5'7'
Weight - 105 lbs
Dose - 1 gram
This more recent experience was even better and easier to recall because it was shared with my girlfriend, D.
I pour the powder over cheesecake jello - which is very nasty textured to begin with - and eat it. Tastes terrible, the texture is awful, but it slides down easily when large amounts are swallowed, so i don't complain. Then I have a stroke of intelligence and cap it up for D. No problem for her.
We watch Fear and Loathing in Las Vegas. It takes the entire movie about until we really feel the effects. Euphoria takes over. Touching, loving feels good. We put in requiem for a dream, which I have not seen. It's an interesting movie, and I feel empathy for the characters in it.
We go downstairs half way through and have some pizza, the kind with bread, then cheese, then sauce on top. AMAZING pizza. I want to emphasize how everything I do when I've taken Kratom is an AMAZING experience. My mind feels a little dull, but I really enjoy the lucidity. I tend to separate 'highs' from 'trips', and this is my favorite 'high'.
So when we go back upstairs, I sit in a chair and it feels amazing to lie down. To smile. To look at D. Kissing feels like an orgasm.
Eventually, two of my friends pick us up and we hang out at J's house. By this time, Iím not feeling the narcotic aspect of Kratom, I feel very very energetic and talk constantly. Cigarettes are very nice. I feel entertaining and a sense of well being. I'm very happy about J's dog.
Conclusion
All in all, I'd say that this drug is similar to my experience with 'molly'. Anyway, Kratom seems to be a very nice drug.
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.


Starbucks Corporation is an American coffee company and coffeehouse chain. Starbucks was founded in Seattle, Washington, in 1971. As of early 2019, the company operates over 30,000[5] locations worldwide.
2401 Utah Avenue South, Seattle, Washington , U.S. Number of locations 28,218 (2018) Area served Worldwide
March 31, 1971; 48 years ago Pike Place Market, Elliott Bay, Seattle, Washington, U.S. Founders Jerry Baldwin Zev Siegl Gordon Bowker.
Collect Stars, Get Stellar Rewards - when you register and use your Starbucks Card. Better rewards, earned more quickly
Our mobile app works just like your registered Starbucks Card so you can pay, earn rewards and manage your account all with a swipe. Download it for iPhone or Android. Need help with the mobile app? Visit the Mobile FAQs page.
An eGift is a digital card your recipient can redeem and enjoy in-store. Just choose a design, add a personal message and the amount you'd like to give, enter an email address then hit send. Send one now.


General Information
Im looking for web projects, ready to work as free lancer
Please only use Phone Contact for URgent Inquiries, OTherwise , twitter and Email are the best way to Reach me
Im looking for web projects, ready to work as free lancer
Please only use Phone Contact for URgent Inquiries, OTherwise , twitter and Email are the best way to Reach me


Please provide database configuration prior to first usage in file config/autoload/local.php
config/autoload/local.php


View a list of certificates available to the app and demonstrate how to use the selected certificate
Certificates:
Operation:
Run Sample


Provides the set of classes for ease of use transition based animations.
It offers a simple framework for incorporating animations onto an internal {@link Timeline}. It also provides high level constructs to compose the effects of multiple animations.


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Instructions: Get a friend to play with you and the player with the most clicks WINS.
CONTROLS: Player 1 controls the Z key. Player 2 controls the M key. Pressing R or the RESET button resets the game.
Playing To: 5


Hello!
Your First PR helps you contribute to Open Source by showcasing great starter issues on GitHub and elsewhere.
Our goal is to make the open source community more accessible to new contributors, by helping project maintainers lower the barrier to entry through the use of well written issues and documentation.
Your First PR shares starter issues on Twitter, at @yourfirstpr. If you know of any projects posting issues ideal for someones first contribution to a project, send us a tweet or create an issue on our GitHub Page.
Soon, we will be writing guides on how to write good issues and how to encourage people to contribute to your project. In the mean time you can get started by reading the following texts on the subject:


Regular Expressions
November 27, 2014
Regular Expressions (or RegEx for the cool kids...) are special expressions that make up a pattern that you can use to search for things. Let's say you want to search a text document for someone's name that you know starts with "dani" or you want to search for all addresses that have "Ave." in them or you want to search for 5-digit codes with "4" in the middle. You can use regular expressions for all of these!! In this tutorial I will go through some examples of searches you could do with Regular Expressions, point you to a helpful cheat sheet, and explain how to use Regular Expressions in Ruby.
Example 1: Daniel, Danny, or Dan
OK, let's say you want to search a document for someone named Daniel but you aren't sure if they are referred to as Daniel, Danny, or Dan. Below is the Regular Expression you could use to search for any of the three and also return their last name.
(Daniel|Danny|Dan)/b/w+/s
The first part of this expression "(Daniel | Danny | Dan)" looks for Daniel or (denoted by the "|") or Danny or Dan. The /b refers to a space after one word and before another. Next the /w looks for one character and when it has a + it looks for one or more characters. Finally the /s refers to a space. Altogether the expression looks for Daniel or Danny or Dan followed by a space followed by one or more characters followed by another space. This expression would match with things like "Dan Smith", "Daniel Kelley", and "Danny Wellington"
Example 2: An Address
Now let's look for an address. Let's assume that the address starts with between 1 and 5 digits and then a space and then a one word street name and then either Ave or St and then a period. Note you need to put a / before the . because the . by itself has its own meaning in regular expressions.
/d{1,5}/s/w+/s(Ave|St)/.
Using Regular Expressions in Ruby
You can use Regular Expressions in many ways in Ruby but here I'll just provide a simple example using the #match() method and the "=~" for comparison. In this example I will test to see if a string contains "Damiel" or "Damiel". #match() will return "#
p /Da[m-n]iel/.match("Daniel") p /Da[m-n]iel/.match("Damiel") p /Da[m-n]iel/.match("Daaiel") p /Da[m-n]iel/ =~ "asdfDaniel" p /Da[m-n]iel/ =~ "asdfasdfaDamiel" p /Da[m-n]iel/ =~ "asdfasdfaDaaiel"
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Object
A class that can be instantiated for access to a RESTful resource, including authentication.
Example:
resource = RestClient::Resource.new('http://some/resource') jpg = resource.get(:accept => 'image/jpg')
With HTTP basic authentication:
resource = RestClient::Resource.new('http://protected/resource', :user => 'user', :password => 'password') resource.delete
With a timeout (seconds):
RestClient::Resource.new('http://slow', :timeout => 10)
With an open timeout (seconds):
RestClient::Resource.new('http://behindfirewall', :open_timeout => 10)
You can also use resources to share common headers. For headers keys, symbols are converted to strings. Example:
resource = RestClient::Resource.new('http://some/resource', :headers => { :client_version => 1 })
This header will be transported as X-Client-Version (notice the X prefix, capitalization and hyphens)
Use the [] syntax to allocate subresources:
site = RestClient::Resource.new('http://example.com', :user => 'adam', :password => 'mypasswd') site['posts/1/comments'].post 'Good article.', :content_type => 'text/plain'
# File lib/restclient/resource.rb, line 39 def initialize(url, options={}, backwards_compatibility=nil, &block) @url = url @block = block if options.class == Hash @options = options else # compatibility with previous versions @options = { :user => options, :password => backwards_compatibility } end end
Construct a subresource, preserving authentication.
Example:
site = RestClient::Resource.new('http://example.com', 'adam', 'mypasswd') site['posts/1/comments'].post 'Good article.', :content_type => 'text/plain'
This is especially useful if you wish to define your site in one place and call it in multiple locations:
def orders RestClient::Resource.new('http://example.com/orders', 'admin', 'mypasswd') end orders.get # GET http://example.com/orders orders['1'].get # GET http://example.com/orders/1 orders['1/items'].delete # DELETE http://example.com/orders/1/items
Nest resources as far as you want:
site = RestClient::Resource.new('http://example.com') posts = site['posts'] first_post = posts['1'] comments = first_post['comments'] comments.post 'Hello', :content_type => 'text/plain'
# File lib/restclient/resource.rb, line 150 def [](suburl, &new_block) case when block_given? then self.class.new(concat_urls(url, suburl), options, &new_block) when block then self.class.new(concat_urls(url, suburl), options, &block) else self.class.new(concat_urls(url, suburl), options) end end
# File lib/restclient/resource.rb, line 92 def delete(additional_headers={}, &block) headers = (options[:headers] || {}).merge(additional_headers) Request.execute(options.merge( :method => :delete, :url => url, :headers => headers), &(block || @block)) end
# File lib/restclient/resource.rb, line 49 def get(additional_headers={}, &block) headers = (options[:headers] || {}).merge(additional_headers) Request.execute(options.merge( :method => :get, :url => url, :headers => headers), &(block || @block)) end
# File lib/restclient/resource.rb, line 57 def head(additional_headers={}, &block) headers = (options[:headers] || {}).merge(additional_headers) Request.execute(options.merge( :method => :head, :url => url, :headers => headers), &(block || @block)) end
# File lib/restclient/resource.rb, line 112 def headers options[:headers] || {} end
# File lib/restclient/resource.rb, line 120 def open_timeout options[:open_timeout] end
# File lib/restclient/resource.rb, line 108 def password options[:password] end
# File lib/restclient/resource.rb, line 83 def patch(payload, additional_headers={}, &block) headers = (options[:headers] || {}).merge(additional_headers) Request.execute(options.merge( :method => :patch, :url => url, :payload => payload, :headers => headers), &(block || @block)) end
# File lib/restclient/resource.rb, line 65 def post(payload, additional_headers={}, &block) headers = (options[:headers] || {}).merge(additional_headers) Request.execute(options.merge( :method => :post, :url => url, :payload => payload, :headers => headers), &(block || @block)) end
# File lib/restclient/resource.rb, line 74 def put(payload, additional_headers={}, &block) headers = (options[:headers] || {}).merge(additional_headers) Request.execute(options.merge( :method => :put, :url => url, :payload => payload, :headers => headers), &(block || @block)) end
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