text:
The Plasma Cloud console allows you to manage wireless mesh both manually and automatically.
Generally, the use of WiFi AI is recommended for automated wireless mesh management. It will perform regular networks scans (based on your maintenance window) and dynamically optimize your settings to better suit your topology. For instance, wireless mesh may be disabled to reduce the WiFi overhead and increase performance when not needed. On the other hand, it will be activated on those devices that can't successfully connect to the Internet via cable.
However, should you wish to manually enable and disable wireless mesh, you can do so either on a per-network or per-Access Point basis. First, you need to:
- Log into the Plasma Cloud console;
- Select the Organisation and Network of interest from the top right menu;
Next, to manually manage wireless mesh for your network, you need to:
- Navigate to Settings > Network in the main menu on the left;
- Ensure the WiFi AI toggle is deactivated in the WiFi settings section;
- Enable or disable the Wireless mesh toggle in the WiFi settings section as needed.
Or, to manually manage wireless mesh for a specific Access Point, you need to:
- Navigate to Access Points and select the device of interest from the table;
- Scroll down to the Wireless mesh section and click on the drop-down menu to change the status of wireless mesh for this particular device.


SQL*Loader «Prev Next»
Lesson 4 Manipulate tables
Objective Describe enhancements in table management.
Describe Enhancements Table Management
Table management covers a broad area. (Many related subjects are covered in other courses, such as the Oracle PL/SQL Programming courses from this website.) This course covers the enhancements that assist the DBA in handling storage issues for tables. The table below lists the enhancements we will review later in this module.
Relocate a tableThis capability saves time. You can now move a table from one tablespace to another without having to drop and recreate the table. This command reorganizes the table, eliminating unused space and removing chained rows.
Create a temporary tableThis enhancement provides special handling for tables that you used for storing intermediate (temporary) data. Temporary tables don'tget the same backup and recovery treatment as regular tables, which saves overhead time and space.
Drop a columnThis enhancement allows you to remove unwanted columns from a table without completely rebuilding the table. This much-neededenhancement streamlines system maintenance.
The next three lessons expand on each of these enhancements.
The next lesson describes how to relocate a table.
 1. Relocate a table
 2. Create a temporary table
 3. Drop a column
Variable Record Format
INFILE "datafile_name" "var n"
Example 5-4: Loading Data in Variable Record Format
load data
infile 'example.dat' "var 3"
into table example
fields terminated by ',' optionally enclosed by '"'
(col1 char(5),
col2 char(7))
012my,name is,


GitHub 6284★
Compute the greatest common divisor between two numbers
JavaScript version
const gcd = (a, b) => (b === 0 ? a : gcd(b, a % b));
TypeScript version
const gcd = (a: number, b: number): number => (b === 0 ? a : gcd(b, a % b));
Examples
gcd(10, 15); // 5
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text:
Finding earthworms is easy! Even a simple back garden can yield a diverse range of species. Different species of earthworms inhabit different microhabitats so there are a number of sampling techniques available for collecting earthworms. The National Earthworm Recording Scheme (NERS) standard protocol outlined below is great for collecting high quality data that can be compared and analysed across sites. However, non-standardised recording methods still provide valuable species data and we welcome any and all records of earthworm species. It's worth remembering that even common species of earthworm have never been recorded in some counties so even a casual record of a common species may be a very important record! Earthworm recording can be simply turning over logs or looking under pots in your back garden.
Sampling Standard Protocol
Our sampling standard protocol has been designed in a standardised manner so that the data collected is comparable across sites. It consists of soil pit sampling and microhabitat searches as outlined below. A downloadable version of this guidance is included in the ESB Earthworm Recorder Pack.
Soil Pit Sampling
Step 1 - Planning
A map of your sample site is useful to mark where you will take your samples, or for identifying different habitats in which to take samples. Look for areas that have no current records. New records on sites that have been previously sampled are still useful as you may get different results. Remember that if you do not own the land where you are sampling you will need permission from the landowner first.
Step 2 - Equipment
You will need the following:
- A spade (to dig the pits)
- 5 plastic tubes of 80% ethanol (to store and preserve earthworms)
- A sorting tray (to place the soil on in order to sort through and look for earthworms, alternatives include pots or bin bags)
- Labels and alcohol resistant pen/pencil (to label your samples and ensure they don't get mixed up)
- Notebook and map (to make note of the location, habitat and other important factors)
- Pointed non-serrated forceps (optional but useful)
- Gloves (to keep your hands clean)
Identification is made easier if you undertake the optional sixth step of relaxing
your earthworms as they will be better preserved:
- A plastic take away container with lid (to relax and align your earthworms)
- A bottle of 30% ethanol (to relax your earthworms)
Step 3 - Digging
A spade can now be used to dig a soil pit. The standard pit size for the National Earthworm Recording Scheme is 25cm by 25cm, to a depth of 10cm.
Step 4 - Sorting
The soil from the pit should be placed on the sorting tray/bin bag/pot and sort through it with your hands.
Step 5 - Earthworms
Any earthworms that are found in the soil should be removed and collected into a container.
Step 6 - Relaxing (optional)
In order to stop the earthworms being preserved in awkward positions, the earthworms can be relaxed and straightened. This will make identification of the specimens much easier.
- Place the earthworms in a container of 30% ethanol.
- Leave for about 5 minutes to relax the earthworms.
- Straighten out the earthworms in the grooves of the lid.
- Pour 80% ethanol onto the earthworms.
- Leave for 5-10 minutes before placing the earthworms in the plastic tube containing a label and 80% ethanol.
Any earthworms that are found in the soil should be removed and collected into a container.
Step 7 - Preservation and Labeling
All the earthworms that have been collected from the pit should be placed in a tube of 80% ethanol. The size/number of tubes used will depend on how many earthworms were collected. Sometimes a pit can yield over 100 earthworms! The 80% ethanol will act as a killing agent and preserve the earthworms. However, earthworms contain a lot of fluid and will release this fluid when they are placed in the ethanol. This will dilute the ethanol and cause the earthworms to deteriorate, so the alcohol should be changed following sampling to prevent this. A label should also be placed in the tube to identify the pit and site that the sample belongs to.
Step 8 - Replication
The standard number of pits is 5 per site for the National Earthworm Recording Scheme. This is important to get a standardised sample of the site. Pits need only be a couple of metres apart (see guidance for planning your soil pits below).
Step 9 - Recording
(See our guidance for Creating and Submitting Earthworm Records for further details.)
- Site details should be recorded on site where possible:
- Who (the recorder and any helpers)
- Where (using GPS to gain latitude/longitude or a grid reference obtained from an OS map/online tool, as well as the site name and county)
- When (record the date)
- Sampling method (either enter ESB soil pit sampling standard protocol or give the pit size and number of pits if different)
- Habitat (the general habitat is useful, but also other details such plant species present and any other habitat comments that may be relevant)
- Substrate (for soil pits this will always be soil/sand)
Step 10 - Identification
All you need to do now is identify your earthworms under the microscope. The Key to the Earthworms of the UK & Ireland by Sherlock (second edition) is available from the FSC website. For beginners at earthworm ID we run earthworm ID courses which are advertised on our website and facebook page. Earthworm ID is straightforward in most cases, but when you are starting of it's a good idea to get an experienced eartworm surveyor to check your ID's so you know you are correct and to improve your skills. If you have identified some earthworms and want to check them please email us to let us know before you send them.
Planning your soil pits
When planning your 5 soil pits it is important that all of your five soil pits fall within the habitat you are sampling. Please note that the distances provided in the following examples do not need to be exact and are given to provide approximate guidance so that it is clear that soil pits should not be spaced a great distance apart.
Large patches of habitat
If you are sampling a habitat that covers a big enough area, soil pits can be arranged in a square formation, with one pit in each corner (for example between 5 and 10 metres apart) and one in the centre. Examples of this type of habitat may include open fields, gardens, woodland and parks.
Some habitats are linear and, in these cases a linear transect should be used with pits spaced evenly apart (for example between 2 and 5 metres). Linear transects may not necessarily be in a straight line and may be curved. Examples of this type of habitat may include hedgerows, riverbanks, pond edges and tree lines.
In some cases neither of these arrangements will be suitable and the arrangement will need to be adapted to suit the habitat you are sampling. If the habitat is patchy, soil pits should be planned in patches of the same habitat.
Soil pit sampling allows a standardised quantitative method of sampling a site for earthworms. However, earthworm inhabit substrates other than soil so it is good practice to search any microhabitats present at each site to improve the likelihood of recording species that are less likely to be encountered in soil pits. It is advisable to only take adult earthworms (not juveniles) as this method of surveying is not quantitative.
There is no exhaustive list of habitats and microhabitats that may be present, but some examples are provided below:
Deadwood - search under deadwood (both the surface of the deadwood and the substrate it is resting on) by turning it over. Also check for earthworms under the bark and within the deadwood. When sampling deadwood destructively please ensure a minimal amount of deadwood is destroyed to maintain the microhabitat in within the ecosystem.
Dung - dung contains rich organic matter and earthworms may be found within/beneath the dung or in the top layer of soil beneath the dung.
Turnover - turning over items can often yield earthworms. Example objects to turnover would include any item resting on soil and items such as plant pots, wooden boards and bin bags on any substrate.
Leaf Litter - leaf litter can be searched by hand or sieved. Some earthworms may be found within the very top layer of the soil, whereas others may be found on the surface beneath the litter.
Hedgerows - some earthworms are thought to be associated with hedgerows and may be found in the top layer of soil beneath hedgerows.
Compost - compost heaps/bins are often home to dense populations of earthworms. They can usually be found by simply searching the top layer of the compost.
Please record the earthworms you find in microhabitats separately from those you find within the soil pits (even if a species occurs in both). Recording the presence of a species in multiple habitats or microhabitats helps us learn more about the ecology of different earthworm species and their associations with specific conditions.
On some sites it may not be possible to get permission to dig. An alternative method of getting earthworms out of the ground is to pour a mustard solution on the ground. To make the mustard solution, add 25 ml volume of mustard powder to 0.75 litre of tap water and shake well. Keep checking the area where you poured the solution (and surrounding area) for ten minutes to

source: openbmb/Ultra-FineWeb


text:
The STEM (Science, Technology, Engineering, & Mathematics) Teaching Equity Project (STEP) provides K12 science teacher professional development in science content, instructional strategies, technology and mentoring. Training is provided by UH faculty, staff and master teachers during summer institutes and academic year sessions on UH and K12 campuses. STEP consistently produces data to demonstrate improved achievement for students taught by STEP-trained teachers.
STEP focuses on teachers who teach high needs student populations. For 2017-18, we will provide elementary and middle school STEM teachers and high school Physics/IPC teachers with a minimum of 100 hours of professional development which will directly impact 70 campuses, 14 districts, and over 10,000 students.
STEP is completely free to teachers, campuses and districts and is made possible by funding from the Teacher Quality Grants Program for Higher Education, the Texas Regional Collaboratives for Excellence in Science and Mathematics Teaching, the Hamill Foundation, and the Powell Foundation.


text:
Young adults in the UK are increasingly dependent on family support to offset the costs of living independently. This article explores these complex intergenerational exchanges from the perspective of a group of single young adults in their mid-twenties to mid-thirties who had been in receipt of various forms of financial and material support from family members since leaving the parental home. We outline the nature of this support and then consider how these forms of assistance are understood by those in receipt of them. We conclude that the co-existence of a sense of both gratitude and discomfort which is often generated by these exchanges is managed but by no means resolved by a blurring of the boundaries between gifts and loans, a set of negotiations which may not even be an option amongst less advantaged young adults.
- intergenerational support
- young adults

source: m-a-p/FineFineWeb


text:
Via Pacific Standard: 'When Hurricane Katrina broke the levees of New Orleans and flooded 85 percent of the city, 100,000 people were left homeless. Disproportionately, these were the poor and black residents of New Orleans. This same population faced more hurdles to returning than their wealthier and whiter counterparts thanks to the effects of poverty, but also choices made by policymakers and politicians—some would say made deliberately—that reduced the black population of the city.
With them went many of the practitioners of voodoo, a faith with its origins in the merging of West African belief systems and Catholicism. At Newsweek, Stacey Anderson writes that locals claim that the voodoo community was 2,500 to 3,000 people strong before Katrina, but after that number was reduced to around 300.'


text:
Import AUTOSAR architecture updates from OEMs
Select this option before the import to merge data instead of overwriting it.
The splittable mechanism provides the following benefits:
- You can optimize processes by distributing elements to files as required, e.g., to support processes for data exchange between OEMs and suppliers.
- You can add elements to an AUTOSAR model via additional AUTOSAR files. This lets you add elements without changing existing AUTOSAR files.
- To reimport splittable elements, right-click the project node and select Import – AUTOSAR.
- Select the file you want to import and select Files contain a new system extract version with splittable elements.
- Browse to and select the previous file version for comparison. SystemDesk returns to the Import dialog.
- Click Start Import.
SystemDesk imports and merges the selected AUTOSAR elements.
You merged AUTOSAR elements from an AUTOSAR file with the AUTOSAR elements in a SystemDesk project.


node" to use multiple machines while also running multiple John processes per machine. For example, to use two similar 8-core machines you may run "--fork=8 --node=1-8/16" on one of the machines and "--fork=8 --node=9-16/16" on the other. For a more complicated example, if you have an 8-core machine and a 64-core machine with similar per-core performance, you could run an OpenMP-enabled build on both of them and use "--node=1/9" (without "--fork") on the first machine (8 threads in 1 process) and "--fork=8 --node=2-9/9" on the 64-core machine (8 threads in 8 processes, for 64 threads total on this machine). With the current implementation, the node numbers range assigned to each John invocation must match the "--fork" process count.
When running with "--fork", multiple ".rec" files are created, which are then read back by "--status" and "--restore" if you use those options. Just like with other options, you must not specify "--fork" along with "--status" or "--restore", because these read the main (unnumbered) ".rec" file first, which contains the right "--fork" option in it, resulting in further (numbered) ".rec" files being read as appropriate.
Under the hood, "--fork" makes use of the same functionality that "--node" does, so the same efficiency and scalability limitations apply. Despite of those, "--fork" is often much more efficient than OpenMP - especially for fast to compute hash types (such as LM hashes), where OpenMP overhead is often unacceptable.
Similarly to "--node", there's almost no communication between the processes with "--fork". Hashes successfully cracked by one process continue being cracked by other processes. Just like with "--node", this is mostly OK for saltless hash types or when there's just one salt, but it is a serious drawback when many different salts are present and their number could potentially be decreasing as some hashes get cracked. To have the cracked hashes (and possibly salts) removed from all processes, you may interrupt and restore the session once in a while.
--format=NAME force hash type NAME
Allows you to override the hash type detection. As of John the Ripper version 1.8.0, valid "format names" are descrypt, bsdicrypt, md5crypt, bcrypt, LM, AFS, tripcode, dummy, and crypt (and many more are added in jumbo). You can use this option when you're starting a cracking session or along with one of: "--test", "--show", "--make-charset". Note that John can't crack hashes of different types at the same time. If you happen to get a password file that uses more than one hash type, then you have to invoke John once for each hash type and you need to use this option to make John crack hashes of types other than the one it would autodetect by default.
"--format=crypt" may or may not be supported in a given build of John. In default builds of John, this support is currently only included on Linux and Solaris. When specified (and supported), this option makes John use the system's crypt(3) or crypt_r(3) function. This may be needed to audit password hashes supported by the system, but not yet supported by John's own optimized cryptographic routines. Currently, this is the case for glibc 2.7+ SHA-crypt hashes as used by recent versions of Fedora and Ubuntu, and for SunMD5 hashes supported (but not used by default) on recent versions of Solaris. In fact, you do not have to explicitly specify "--format=crypt" for hashes of these specific types unless you have other hash types (those supported by John natively) in the password file(s) as well (in which case another hash type may get detected unless you specify this option).
"--format=crypt" is also a way to make John crack crypt(3) hashes of different types at the same time, but doing so results in poor performance and in unnecessarily poor results (in terms of passwords cracked) for hashes of the "faster" types (as compared to the "slower" ones loaded for cracking at the same time). So you are advised to use separate invocations of John, one per hash type.
Additional utilities (compiled/installed along with John).
There are some related utilities in John's run directory. (Depending on platform, these may be symlinks to the main John program binary.)
Combines the "passwd" and "shadow" files (when you already have access to both) for use with John. You might need this since if you only used your shadow file, the "Full Name" or "GECOS" information wouldn't be used by the "single crack" mode (thus reducing its efficiency) and you wouldn't be able to use the "--groups" and "--shells" options and to select by UID with "--users". You probably also want to see all of the passwd file fields with "--show".
You'll usually want to redirect the output of "unshadow" to a file which you then pass to John.
Gets password hashes out of the binary AFS database and produces output usable by John (you should redirect the output to a file).
Removes duplicates from a wordlist (read from stdin) without changing the order of entries. You might want to use this with John's "--stdout" option if you've got a lot of disk space to trade for the reduced cracking time (on possibly trying some duplicates as they might be produced with word mangling rules).
There are also some related scripts supplied in John's run directory. (Binary packages of John may choose to install these along with the documentation instead.)
relbench is a Perl script to compare two "john --test" benchmark runs, such as for different machines, "make" targets, C compilers, optimization options, or/and versions of John the Ripper. To use it, redirect the output of each "john --test" run to a file, then run the script on the two files. Most values output by the script indicate relative performance seen on the second benchmark run as compared to the first one, with the value of 1.0 indicating no change, values higher than 1.0 indicating speedup, and values lower than 1.0 indicating slowdown. Specifically, the script outputs the minimum, maximum, median, and geometric mean for the speedup (or slowdown) seen across the many individual benchmarks that "john --test" performs. It also outputs the median absolute deviation (relative to the median) and geometric standard deviation (relative to the geometric mean). Of these two, a median absolute deviation of 0.0 would indicate that no deviation from the median is prevalent, whereas a geometric standard deviation of 1.0 would indicate that all benchmarks were sped up or slowed down by the exact same ratio or their speed remained unchanged. In practice, these values will tend to deviate from 0.0 and 1.0, respectively.
A shell script to send mail to all users whose passwords got cracked. This is not always a good idea, though, since lots of people do not check their e-mail or ignore such messages, and the messages can be a hint for crackers.
You should probably deploy proactive password strength checking, such as with passwdqc, before you ask users to change their passwords - whether using this script or otherwise. And you should edit the message inside the script before possibly using it.
This is a script to (re-)generate the.chr files using passwords in john.pot and applying all of the defined external mode filters. To speed it up on a sufficiently large computer (RAM and CPUs), "&" may be added after the John invocation inside the script (to run all of them in parallel).
$Owl: Owl/packages/john/john/doc/OPTIONS,v 1.20 2016/01/21 05:10:00 solar Exp $


text:
Learning with Apps for Kids Classroom
Educators can take advantage of SOLIDWORKS Apps for Kids and its incredible potential as a learning tool with Apps for Kids Classroom!
Teachers, parents, mentors, makers, after-school activity organizers, and more can all utilize Apps for Kids Classroom to organize self-contained classes and teach their students the principles of design and engineering. Apps for Kids is structured to help kids think through the design process: gather information, define the problem, create ideas, prototype, and test solutions.
Using the Apps for Kids Classroom interface, educators can create and organize self-contained workshops in an exciting and easy-to-use environment. Educators who sign up for Apps for Kids Classroom have take advantage of these invaluable features:
- Invite other teachers to your organization
- Easily set up and manage student accounts
- Share content directly with a class of students
- Fun and diverse lesson plans that are based on current curriculum standards
- Lesson plans specifically designed for different age groups
- A secure and private environment for students and educators to collaborate
"This program shows great opportunity for … learning about how things work.. and I think that's amazing and inspirational." - Sydney, Age 12
Check out the sample lesson plans below to learn how to run your own fun class projects!
Project 1 – Living in Space
Project 2 – New Jewelry Designs
Project 3 – Mechanical Models
Project 4 – Designing New Foods
Project 5 – Animals in Habitats
Find many more lessons in the Apps for Kids Classroom learning environment.
Learn more on the Classroom apps page here, or sign up and try Apps for Kids Classroom today.
Commitment to Education is a Core Part of our DNA.
Today, SOLIDWORKS is used by millions of educators and students around the world. SOLIDWORKS is a cornerstone of many educational programs and Science, Technology, Engineering, and Math (STEM) activities that have inspired students to pursue careers in design and engineering.
SOLIDWORKS is generally used at a high school level or above. So for younger children, we decided to create SOLIDWORKS Apps for Kids! SOLIDWORKS Apps for Kids is a collection of apps that makes many aspects of the engineering process accessible to kids as young as four. Whether it's design and making, mechanics, or just inspiring creativity, SOLIDWORKS Apps for Kids is a great way to teach and engage children!
As SOLIDWORKS Apps for Kids grows, we will be providing more tools specifically dedicated to educators. These tools will help educators deliver high-quality learning curriculum, and help them continue to inspire and engage kids in STEM and STEAM (adding Art into the mix) activities.
Take a tour of our current apps in the video gallery or sign up and see how you and your students can utilize the SOLIDWORKS Apps for Kids ecosystem today!


text:
Your camera has a scanning rate of 525 lines and 60 frames/second, which is about the same as a standard television set.
What is Frame Rate?
Frame rate is the measurement of how quickly an imaging device produces frames, or unique consecutive images. Frame rate is most often expressed in frames per second.
In order to produce an image, electron beams have to scan the entire frame of the image, going from left to right and top to bottom at an extremely rapid pace. When more lines are scanned, more detail is captured, thereby increasing the quality of the image.
The frames per second for the X10 Camera is 60 consecutive images produced per second which, in combination with the transmission rate of 525 lines, creates a high quality final image.

source: HuggingFaceFW/fineweb-edu


text:
By Grete Heimerdinger
It may sound easy to take moisture measurements: just stick the needles in the wood, or place the meter on the board. However, there are some essential variables installers and inspectors need to be aware of, to correctly measure the moisture of a wood floor.
Checking your moisture meter:
You can check the primary functions of your meter by performing the following simple tests:
Pin or pinless:
First, hold the meter in the air and take a reading with nothing touching the pins or the measuring plates. The meter should show the lowest possible measurable value. Depending on the make of the meter, the meter may indicate "LOW" or "MIN." It is important to be aware of this low limit because your meter cannot indicate a lower moisture content.
Wood can have a very low (many times non-measurable) moisture level in high desert areas such as Colorado, or in the cold winter months in places like Minnesota. The theory behind it is that there is so little water in the wood that the meter has reached the limit to indicate a lower moisture level. The dry wood blocks all measurements.
Some pinless meters can measure lower moisture contents than some pin meters.
Next, make sure your meter is actually reading. Touch the pins with two fingers or put the measuring plates on your forearm, push the "READ" button and you should be able to get a value above 12 percent.
It is also recommended to use a calibration check block provided by the meter manufacturer. You cannot check a pin and a pinless meter with the same check block. Based on the different measuring technology, two different check blocks are required. Meters from different manufacturers also use different check blocks.
It is highly recommended to perform the two tests described in addition to using the calibration check blocks.
Measuring with your pin moisture meter:
Pin meters measure the electrical resistance between 2 (or 2 plus) pins. If there is more water in the test sample, the resistance gets lower, and the meter indicates a higher moisture value. Less water and the electrical resistance gets higher; the meter indicates a lower moisture value.
Measurements are obtained from the space between the pins. If pins are Teflon-coated, the meter measures moisture where the tips of the pins are placed. This is the only way to obtain core measurements, measurements from a subfloor, or moisture gradients within the entire system without removing the floor planks.
Three factors affect the indicated moisture value by a pin meter:
1. Differences between different boards of the same wood species. Each piece of wood, even within the same wood species, is different in color, structure, and electrical characteristics. Moisture readings from sample boards of the same species at the same moisture content show small deviations. Below fiber saturation point at about 25 percent, these deviations are small and in general stay within 1-2 percent.
2. Differences between different wood species. More significant variations are found between different wood species. To stay within the variations of 1-2 percent, moisture readings have to be corrected for the wood species you are measuring at the moment.
Calibration corrections are done internally by the moisture meters.
The user selects either a wood group
(species with similar correction algorithms are in the same wood group) or the individual wood species. Wood group codes and species settings are specified by the manufacturer.
Note, the correction algorithms for pin meters are not based on specific gravity; they have to be found by oven tests and mathematical calculations.
3. Differences between different wood temperatures. Measuring moisture of hot or cold lumber requires further corrections. The electrical resistance changes with the wood temperature. Moisture meters are calibrated for a wood temperature of 70˚ F. If the wood is between 55-85˚ F, the difference in readings is small. Above 85˚ F or below 55˚ F, the measured value should be corrected for the actual wood temperature. Some pin meters have built-in temperature corrections while others come with a correction table. Caution: It is hard to establish the correct wood temperature at the measuring depth where the tip of the pin has been driven to.
If the ambient temperature has been stable for the last few hours, you can take the ambient temperature. If the ambient temperature has changed, then use the average during the last few hours.
Measuring with your pinless moisture meter:
Most pinless meters use electromagnetic wave technology. The indicated moisture content includes all materials in a three-dimensional field underneath the measuring plate(s). (See photo, the entire area between surface and core is included in the measuring field.) If there is more water in the test sample, the indicated moisture content is higher. Less water gives a lower moisture content until the meter cannot measure anymore.
If moisture varies within the three-dimensional measuring field, the average moisture is indicated. If different materials, for example, wood and concrete, are within the three-dimensional measuring field, the indicated value is not a true moisture percentage.
If there is not enough material underneath the measuring plates, the indicated moisture value is not accurate either. It could be because the test sample is too narrow to cover the entire measuring field, or maybe because the test sample is not thick enough and there is not enough material underneath the measuring plates to give an accurate reading. In other words, wood planks that are only 1/2″ thick cannot be accurately measured when the meter is reading 3/4″ deep. The subfloor will influence the results. Some meter manufacturers offer dual-depth meters to accommodate for these variations in material thickness.
Two factors affect the moisture value indicated by a pinless meter:
1. Differences between different boards of the same wood species. Pinless meters change the indicated moisture value based on the material inside the measuring field. Each piece of wood, even within the same species, differs in structure and density, which causes small variations between measurements within the same wood species at the same moisture level. These variations mostly stay within 1-2 percent if the moisture content is below the fiber saturation point at 25 percent. However, if the density within the same wood species varies too much, those limits will be exceeded.
2. Differences between different wood species. Corrections for different wood species are necessary because of density changes between different wood species. There is a large difference in density between a lightweight cedar board at specific gravity (SG) of 0.3 and a tropical hardwood with an SG of 1.1. To obtain accurate moisture percentages, the meter needs to be adjusted for different wood species.
Many meters now offer built-in correction settings as an upgrade from printed correction tables. Wood species with the same density are put into the same wood groups. Most meters use the average density of the wood species as a code number. For instance, the wood group No. 45 is for wood species with a density of 0.45.
The temperature of the wood does not have a great impact on the indicated moisture values when using a pinless meter.
It is very obvious that moisture meter measurements with any meter, pin or pinless, need to be corrected for the wood species measured. When documenting your readings of moisture measurements, it is crucial to always note the make of meter, the wood species settings, and where applicable, the wood temperature correction settings.
For accurate record keeping, simply take a photo of the indicated moisture value and the chosen wood species (and temperature) settings. If possible, show the place where the photo was taken. If you ever have to go back for a claim, measure the same spot and compare measurements.
What can be done if the meter has been set to the wrong wood species code number? It happens from time to time that an entire series of measurements is taken with a meter on the wrong wood species setting.
Whether you're using a pinless or a pin meter, the best solution would be to call the manufacturer and give the actual measured wood species, the moisture value, and the wrong setting number. They should be able to give you the corrections.
If this was a pinless meter, you might be able to find the correction yourself. Take a stack of papers and measure the moisture content using the wrong setting. Add more papers or moisten some sheets until you get the same moisture content as out on the job. Then change the setting to the correct wood species setting and take a reading. The correct value is displayed. Now, you can determine the difference in moisture percentage between the correct setting and the wrong setting. Correct the other values by the same difference within the same moisture range. You can also call the manufacturer to ask how to correct the values.
The worst case scenario is if moisture measurements have been taken and it has been forgotten to note the chosen wood species settings, and if applicable, wood temperature settings. Those measurements are useless, sorry.
With the right moisture meter, following the manufacturer's instructions, anyone can get reliable moisture measurements, which represent the moisture distribution of the wood floor at the time the moisture readings were obtained.
Grete Heimerdinger is a Technical Specialist for the Lignomat moisture meter division. She can be reached at _EMAIL_.


text:
How to find out that a NIC is in promiscuous mode on a LAN?
DNS test - many packet sniffing tools perform IP address to name lookups to provide DNS names in place of IP addresses. To test this, you must place your network card into promiscuous mode and sends packets out onto the network aimed to bogus hosts. If any name lookups from the bogus hosts are seen, a sniffer might be in action on the host performing the lookups.
ARP Test - When in promiscuous mode the driver for the network card checks for the MAC address being that of the network card for unicast packets, but only checks the first octet of the MAC address against the value 0xff to determine if the packet is broadcast or not. Note that the address for a broadcast packet is ff:ff:ff:ff:ff:ff. To test for this flaw, if you send a packet with a MAC address of ff:00:00:00:00:00 and the correct destination IP address of the host. After receiving a packet, the Microsoft OS using the flawed driver will respond while in promiscuous mode. Probably it happens just with the default MS driver.
Ether Ping test - In older Linux kernels when a network card is placed in promiscuous mode every packet is passed on to the OS. Some Linux kernels looked only at the IP address in the packets to determine whether they should be processed or not. To test for this flaw, you have to send a packet with a bogus MAC address and a valid IP address. Vulnerable Linux kernels with their network cards in promiscuous mode only look at the valid IP address. To get a response, an ICMP echo request message is sent within the bogus packet leading to vulnerable hosts in promiscuous mode to respond.
Maybe there are more, the DNS test for me is the most reliable
VP01 gave the theory, I will give some tools.
For use in linux systems:
SniffDet: This one employs 4 different tests: ICMP test, ARP test; DNS test and also a LATENCY test (which VP01 didn't mention). The tool is recently updated and I recommend it.
NMAP : There is an NSE script for nmap called sniffer-detect.nse which does just that.
NAST: - it detects other PC's in promiscuous mode by doing the ARP test.
PTOOL - does ARP and ICMP test
For windows systems: Cain & Abel can do a promiscuous scan using many types of ARP tests.
Microsoft has tools for this purpose too. Promqry and PromqryUI - but I'm not really sure how they work.
As for general detection techniques, there's also another one, called honeypot detect. Details about the latency test and the honeypot technique can be found in sniffdet's documentation.
You can't guarantee that you'll be able to detect it.
For example, you can easily make a read-only ethernet cable by looping the TX+ (pin 1) and TX- (pin 2) of the sniffing computer, then set TX+ (pin 1) to RX+ (pin 3 of the sniffer) and TX- (pin 2) to RX- (pin 6 of the sniffer). It will then be impossible for the sniffing computer to affect any data traffic on the network.
It may be possible to detect a voltage drop or RF emissions (along the lines of Van Eck phreaking), but I'm not aware of any COTS hardware that will detect it.
While it may not always be possible to identify if the local network is promiscuously sniffing the local network traffic -- it may be possible to crash most or all packet capture applications doing so.
Check out Samy's _URL_ script for a starting point. Realize that most applications working in 2011 are vulnerable to at least a DoS crash attack, even if the crash isn't vulnerable as a memory access violation (or a read/write exception that leads to a buffer overflow).
I believe there is a tool that reliably detects this by looking at the difference in ping response times. The tool sends pings and at the same time send a large number of pings to the same IP address but with a different MAC addresses.
The tool works because cards in promiscuous mode will be returning all traffic to the CPU thus when there is a lot of packets hitting the CPU this will slow the response to genuine pings. A card in normal mode would be ignoring all packets with different MAC addresses so there would be no difference in the response time.
Someone insert the name of the tool


\mathcal{E}}}}}_{\rm{p}}({{{\mathbf{\uprho }}}})\left\vert {{{\mathbf{\uprho }}}}\right\rangle \otimes \left\vert {{{\mathbf{\uprho }}}}\right\rangle ,$$
(3)
in the transverse coordinates of the crystal's image plane, where \({{{{\mathcal{E}}}}}_{\rm{p}}({{{\mathbf{\uprho }}}})\) is the pump field on the crystal plane (the subscript p stands for pump) and \({{{\mathcal{N}}}}\) is a normalization factor. The spatial correlation properties of biphoton states in this approximation are of strong interest for applications in high-dimensional quantum entanglement and quantum imaging32,34,35,36.
If the thin-crystal approximation holds for both the reference and unknown states, equation (2) contains relevant contributions only for the case \({{{\mathcal{C}}}}({{{{\bf{X}}}}}_{1},{{{{\bf{X}}}}}_{1})\), with X1 = ρ. These diagonal contributions of the coincidence count rate are given by
$${{{\mathcal{C}}}}({{{\mathbf{\uprho }}}},{{{\mathbf{\uprho }}}})=\left| {{{{\mathcal{E}}}}}_{\rm{p}}({{{\mathbf{\uprho }}}})+{{{{\mathcal{E}}}}}_{{{{\rm{ref}}}}}({{{\mathbf{\uprho }}}})\right|^{2}.$$
(4)
Here, \({{{{\mathcal{E}}}}}_{{{{\rm{ref}}}}}\) is the pump shape used to generate the reference SPDC state. Ideally, \({{{{\mathcal{E}}}}}_{{{{\rm{ref}}}}}\) can be a plane wave or, in practice, a Gaussian beam with a large waist. By controlling the reference pump beam one can map any interferometric technique that is used in classical optics for amplitude and phase reconstruction to the two-photon case. In this work, we experimentally implemented off-axis digital holography, where the reference beam is a Gaussian beam with a tilted wavefront. In off-axis digital holography, with \({{{{\mathcal{E}}}}}_{{{{\rm{ref}}}}}(x,y)=\)\(A\exp (-({x}^{2}+{y}^{2})/{w}_{r}^{2})\exp (i2\uppi (x+y)/{{\Lambda }})\), where A is the amplitude of the reference beam, wr the waist and 2π/Λ the magnitude of the average transverse wave vector components, one has
$$\begin{array}{ll}{\left\vert {{{{\mathcal{E}}}}}_{{{{\rm{ref}}}}}+{{{{\mathcal{E}}}}}_{\rm{p}}\right\vert }^{2}=&{\left\vert {{{{\mathcal{E}}}}}_{{{{\rm{ref}}}}}\right\vert }^{2}+{\left\vert {{{{\mathcal{E}}}}}_{\rm{p}}\right\vert }^{2}\\ &+2A{\mathrm{e}}^{-\frac{{r}^{2}}{{w}_{r}^{2}}}\left({{{{\mathcal{E}}}}}_{\rm{p}}{\mathrm{e}}^{-i2\uppi \frac{(x+y)}{{{\Lambda }}}}+c.c.\right),\end{array}$$
where c.c. indicates the complex conjugate. From a spatial Fourier transform one can hence isolate the term proportional to \({{{{\mathcal{E}}}}}_{\rm{p}}\) and reconstruct the amplitude and phase of the unknown field. The proposed scheme can be implemented in two measurement steps: first, the correlations in the crystal image plane are measured to confirm the validity of the thin-crystal approximation, second, the coincidences corresponding to equation (4) are evaluated and the biphoton state extracted from the resulting interference pattern.
Beyond the thin-crystal approximation, one has to reconstruct also the contribution of the phase-matching function, which is in general a function of the form ϕ(Xi − Xs). The phase-matching contribution can be retrieved either by analysing the far field SPDC intensity distribution or, more rigorously, by post-selecting anti-diagonal correlations, that is, analysing the coincidence image \({{{\mathcal{C}}}}({{{\bf{X}}}},-{{{\bf{X}}}})\).
Experimental set-up and results
Following the theoretical description of the previous section, we experimentally implemented a platform in which, through off-axis digital holography, the biphoton state, emitted via SPDC by a type-I β-barium borate (BBO) crystal, is reconstructed. In this proof of principle experiment, we generate the unknown and reference SPDC states in the same crystal. A visual scheme of the set-up is reported in Fig. 2a (see Methods and Supplementary Section 5 for details). We built a Michelson interferometer which allowed the creation of a pump beam in the mode \({{{{\mathcal{E}}}}}_{\rm{p}}+{{{{\mathcal{E}}}}}_{{{{\rm{ref}}}}}\), where the reference mode is a wide Gaussian with a tilted wavefront \({{{{\mathcal{E}}}}}_{{{{\rm{ref}}}}}=\exp (-{r}^{2}/{w}_{\rm{r}}^{2})\exp (i2\uppi (x+y)/{{\Lambda }})\), and \({{{{\mathcal{E}}}}}_{\rm{p}}\) is generated with a spatial light modulator (SLM) placed in one of the arms of the interferometer. The mean transverse momentum 2√2π/Λ is chosen to maximize the spatial resolution of the reconstructed field, and wr is chosen to be larger than the characteristic waist parameter of \({{{{\mathcal{E}}}}}_{\rm{p}}\), denoted as wp. The interferometer's output is sent through the BBO crystal, and the state of the two photons is recorded using a time-stamping camera (Tpx3Cam). The camera comprises a matrix of 256 × 256 time-stamping pixels of 55 μm size and with ~1 ns time-resolution. We collected data in the crystal's image plane, which were used to reconstruct the biphoton state in the thin-crystal approximation. The emitted signal and idler photons were separated by a beam splitter and sent into different regions of the camera sensor, allowing one to check for coincidences between different pixels. In Fig. 2a we represent, for simplicity, the two sensor areas as two independent time-stamping cameras. We could verify the correctness of the thin-crystal approximation by observing the spatial correlations. This is shown by the sharp, ~1-pixel-wide, spatial correlations observed in all of the cases under analysis (see Fig. 2c for an example). The data was collected in 1 min of exposure for each spatial mode under analysis. In particular, we collected both the interference pattern between the two states and a coincidence image of down-converted light induced by \({{{{\mathcal{E}}}}}_{\rm{p}}\) only. The former was used to retrieve


text:
Yorkshire CND has commissioned Steve Schofield to research and write a report about Menwith Hill, said to be the largest electronic monitoring station in the world, which provides intelligence on terrorist activities to both the UK and the USA. It is alleged to scan emails, phone calls and faxes for keywords.
At present the draft has been read by a few and comments coming are:
- absolutely fascinating and
- very well written.
- The numbers are a revelation.
- hugely informative
- a remarkable account of the growth of America's 'reach' and strategy since the 2nd World War.
We look forward to its publication.


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Marvel Universe
Marvel Universe
Real Name
Nobel the Progenitor
No dual identity
Dark Dimension
First Appearance
(As Strange) Doctor Strange: Sorcerer Supreme #61 (1994); (as Progenitor) Midnight Sons Unlimited #8 (1995); (as Nobel/Paradox) Doctor Strange: Sorcerer #75 (1995)
Doctor Strange: Sorcerer Supreme Annual #4 (1994); Doctor Strange: Sorcerer Supreme #75 (1995)
When challenged by the Fallen sorceress Salomé during Zarathos' "Siege of Darkness," Dr. Strange withdrew into the Null-Space dimension to augment his powers gradually. To act as his proxies, he created two doppelgangers, or "Strangers" composed of mystic energy: Vincent Stevens, whom he put to work developing wealth to investigate newer forms of magic, and Strange whom he sent into battle alongside the Midnight Sons. Strange drove off Salomé and helped the Midnight Sons defeat Zarathos and his Fallen followers; following the battle, he was bonded to his colleagues as one of the Sons in the Rite of the Dagger, although most were unsure of his nature and allegiance.
To aid Dr. Strange in an eventual rematch with Salomé, Strange traveled the world to gather earthbound magical items, clashing with Nathaniel Richards (disguised as Doctor Doom), Doctor Druid, Namor the Sub-Mariner and others in the process; singled minded in his search, he had no compunction about allowing or even causing deaths of others in the process. Meanwhile, Salomé, having determined Strange was not Dr. Stranger as she had first supposed, suspected Vincent Stevens of being her enemy in disguise. Although Stevens unlike Strange, had not been created with innate knowledge of his nature, Salomé's underlings absconded with him, pursued by Strange. In her Iraqi citadel, Salomé revealed the Strangers' true nature despite Stevens desperate denials, and although Strange again defeated her, the conflict left both him and Stevens mystically depleted. Strange sought to merge with Stevens to become a whole and more powerful being, but Stevens refused, desperate to maintain his individuality.
Weakening by the day, Strange sought alternate means of stabilizing his form, unsuccessfully attempting mergers with X-Factor's Polaris, and the adventurer Rick Jones; the latter attempt forced Strange to fight Jones' ally the Hulk, possessed by Stevens via new forms of magic he had developed. Shortly afterward, Strange, Modred the Mystic and the Scarlet Witch were abducted by the Clave, a scientific culture from the future seeking knowledge to pit against their enemies, the mystic super-race Kynd. The Clave tortured Strange in their experiments and learned that he was the Kynd's metaphysical ancestor, but Stevens and his fellow prisoners escaped via the intervention of Blade and Man-Thing.
Dr. Strange soon emerged from his extra dimensional sanctuary and sought to reclaim the strangers' mystic energies and consign them to non-existence. Realizing he had no hope of defeating his creator alone. Stevens recruited Strange in a united front, but Strange's realization that his "brother" was manipulating both Dr. Strange and himself broke their bond, resulting in Stevens' apparent destruction and increasing Strange's. need to bond with another or dissolve into nothingness. Realizing his errant creation deserved a chance at life, Dr. Strange sent Strange to the Dark Dimension, where Dr. Strange longtime disciple and lover Clea was leading a rebellion against her uncle, the Dread Dormammu. There Strange merged with Nobel, a dying member of Clea's rebel unit, and the combination created Paradox, an altered, more human version of Strange. As Dr. Strange finally defeated Salomé, Paradox became one of Clea's strongest and most loyal supporters, and he has remained in the Dark Dimension ever since; however, Paradox's status as alleged Progenitor of the Kynd suggests he might one day return to Earth dimension.
Contributors: Ohitsme, Wbgeek and Acotilletta2


text:
The gas turbine materials technology program at Southwest Research Institute (SwRI) includes super alloys, including directionally solidified and single crystal alloys, coatings, titanium alloys, composites, ceramics, intermetallics, and polymers, as well as conventional ferrous and nonferrous materials.
For materials and coatings selection, it is necessary to understand the parameters, such as the materials and process, structure-property relationships, and process quality assurance that affect the durability of the components. Engineers have worked extensively on numerous gas turbine materials and coatings and tested a number of superalloys and coatings to generate a materials database, understand degradation mechanisms, and develop life assessment methods. SwRI has conducted studies that can be broadly categorized as:
- Materials and processes
- Testing and evaluation
- Quality assurance
- Supplier qualification
SwRI can offer you a full range of capabilities and experience in gas turbine technology including becoming an extension of your engineering department. Contact us for more information about our gas turbine technology materials and coatings selection capabilities. To contract with SwRI, please contact the Machinery Services Hotline at _PHONE_.
For more information, contact Tim Allison or call _PHONE_.


Closing the world's first commercial nuclear power station
 - 15 December 2010
 - From the section Business
Berkeley nuclear power station
Image caption Berkeley, seen here in 1963, has now been stripped of its equipment
The Magnox reactor buildings at the world's first commercial nuclear power station stand square, almost defiantly, against the brisk breeze from the River Severn.
Built in the late 1950s, the power station produced enough electricity during its heyday to supply a city the size of Bristol.
These days, devoid of life and stripped of its external pipework, the seven-storey buildings are little more than hollow shells.
"When they were operational they were full, jam packed with gear," says site director Sean Sargent as he surveys one of the large, dark rooms in Reactor 2, the beam from his powerful torch bouncing off the cold concrete floor and walls.
Locked up and sealed
Image caption Mr Sargent says 99% of the radioactive waste was sent to Sellafield 20 years ago
Inside the windowless structures, vast concrete chambers, stripped of monitoring and control equipment, surround a central cylinder that houses the old nuclear reactors.
But electricity production at the Berkeley site ceased in the late 1980s, marking the end of just over three decades of supplying the National Grid.
Since then, the reactors have taken on new lives.
These days, following two decades of dismantling and decommissioning, their function is to store the reactor's casing and core.
On Thursday, the buildings will be locked up and sealed for 64 years of nuclear waste storage - allowing the radiation in the reactors to degrade to levels low enough to make it both safe and economic to remove the waste that is still left within them before knocking them down.
"We'll be locking the doors and that'll be it," says Mr Sargent.
Nowhere to put it
Image caption Intermediate-level nuclear waste will be recovered from underground vaults and moved to a new site
In nuclear jargon, sealing the buildings is referred to as "entering Safestore"; the second stage in a lengthy process of nuclear power plant decommissioning.
Berkeley is the first of 10 Magnox nuclear power stations in the UK to reach this stage of decommissioning, though they will all follow suit over the years ahead.
Sara Johnston from the Nuclear Decommissioning Authority (NDA) believes this is "demonstrating the progress made in decommissioning".
"This is a hugely significant achievement, not just for the site but for the UK nuclear industry as a whole," she says.
Sceptics, however, believe it highlights how slow the process of dealing with nuclear waste is, and point out that there is more than one reason why the reactor buildings at Berkeley will remain intact for three-quarters of a century after electricity production here came to an end.
One reason is that it is cheaper and just as efficient to leave the contaminated material where it is, rather than build a new storage facility on site.
The other reason is that the UK still has not constructed a geological disposal facility where it can put its radioactive waste.
Nuclear waste
Image caption Berkeley nuclear power station ceased producing electricity in 1989
At this point in time, it has not even been decided where the UK's underground nuclear waste repository will be constructed, though somewhere near Sellafield in Cumbria - where the vast bulk of the UK's high-level nuclear waste is currently stored - is generally deemed the most likely location.
This was where the foundations were laid for the construction of Berkeley and the UK's commercial nuclear power industry, when during the late 1950s Calder Hall at Sellafield branched out from nuclear for military purposes to also deliver power to the National Grid.
This is also where spent fuel rods from Berkeley were sent for reprocessing during _PHONE_, so all the active waste - some 99% of all the radioactivity that was here - has long since left the site in Gloucestershire.
But Berkeley has nevertheless been left with about 1,000 tonnes of intermediate-level radioactive waste from its research laboratories, and in the form of sludge from the treatment of the cooling water.
This waste is currently stored below ground in eight-metre deep vaults, each of them six metres wide and 14 metres long.
Like all the contaminated waste in the UK, Berkeley's intermediate-level waste will eventually end up in the planned underground repository, though in the meantime it will be stored on site.
A new storage facility will be created above ground, adjacent to the two reactor-buildings-cum-waste-stores.
"We talk of a three box solution," says Mr Sargent.
Problem for newbuild?
Regulators and local people alike seem satisfied that the storage solutions at Berkeley are safe for now.
But having radioactive waste temporarily stored at old Magnox nuclear power station sites, at a time when plans for the next generation of new nuclear power plants in the UK is being hammered out, could prove problematic for the industry.
Opponents to nuclear power will see it as visible proof that the mess from the past has not been sorted out, thus undermining assurances by the newbuild industry that its radioactive waste will be properly dealt with in the future.
More on this story
Related Internet links
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File Event Monitor Reference Guide
File Event Monitor
Checks dates, sizes, and contents of files.
Overview
The File Event Monitor is designed to look at individual files, check their dates, sizes, and contents. It's perfect for scanning log files for specific text and getting alerts about modified files.
Use Cases
 - Checking log files for error messages
 - Detecting log files that are quickly growing in size
 - Looking for specific words in text files
Monitoring Options
This event monitor provides the following options:
File Path
Enter a UNC path to the file that you want to monitor. Instead of entering an actual device name, use [devicename] as in the following example: \\[devicename]\c$\folder\file.txt When the event monitor runs, it will substitute [devicename] for each of the devices selected in the Network Devices section.
Alert with [Info/Warning/Error/Critical] if the device cannot be contacted
Use this option to alert if the event monitor cannot connect to the network device.
Alert with [Info/Warning/Error/Critical] if the file is [missing/present]
Use this option to alert if the event monitor was able to connect to the network device, but the file was missing or present. You might use the option to alert when a file is missing if you have a critical configuration file that applications or services depend on. The option to alert if the file is present can be used for cases where applications or services create an error file when an unexpected condition is detected.
Alert with [Info/Warning/Error/Critical] if the file size has [increase/decrease/changed/remained the same] since the last run
Use this option to alert based on changes in the file's size.
Alert with [Info/Warning/Error/Critical] if the file's last modified date has [changed/remained the same] since the last run
Use this option to alert based on the file's last modified date.
Alert if the file is larger than a specified size
With this option, you can get alerts if the file's size exceeds the thresholds that you specify.
Alert if the file is smaller than a specified size
This option can be used to alert if the file's size is smaller than the specific thresholds that you choose.
Check the contents of the file
Enable this option to access further checks that will look at the content of the file.
Alert with [Info/Warning/Error/Critical] if the file contains the text [text string]
Use this option to get alerts when specified text is found in the file.
When the text is found, show the line the text is on
If this option is enabled and a match is found, the line that the match was found on will be included in all alerts and notifications.
When the text is found, show the previous [#] lines
Use this option to also include some of the lines that precede the one where the match was found.
When the text is found, show the following [#] lines
Use this option to also include some of the lines that follow the one where the match was found.
Use a regular expression when matching text
With this option enabled, the search text will be interpreted as a regular expression.
Do not alert if the same line contains [text string]
With this option enabled and a match is found, the match will be ignored if any of the specified comma-separated text is found on the same line.
Alert with [Info/Warning/Error/Critical] if the file does not contain the text [text string]
This option is the opposite of the previous one. It will alert you if the specified text is not found in the file.
Use a regular expression when matching text
With this option enabled, the search text will be interpreted as a regular expression.
Only check for text that is new since the last check
By default, the event monitor will scan the entire file for the text you specify. With this option enabled, it will only check new text that has been appended to the file since the last check.
Show the first [#] lines of the file in all notifications
With this option enabled, the event monitor will show the first lines of the file in all alerts and notifications.
Show the last [#] lines of the file in all notifications
With this option enabled, the event monitor will show the last lines of the file in all alerts and notifications.
Show the first [#] lines of new content from the file in all notifications
With this option enabled, the event monitor will show a portion of the new content that was added to the file since the last run.
Enable date/time tokens in the file name
With this option enabled, the event monitor will use the time the event monitor runs to replace time tokens in the given file name.
Example: \\[devicename]\c$\folder\file-%%YYYY%%-%%MMZ%%-%%DDZ%%.ext
Which would then use the current year, month and day to change the file name to: \\[devicename]\c$\folder\file-1977-05-06.ext
Authentication and Security
The account used for authentication must have permission to access the file and all its contents.
Protocols
Data Points
This event monitor generates the following data points:
Data Point Description
File Size The size of the file.
Sample Output
Tutorial
To view the tutorial for this event monitor, click here.
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text:
image credit: Courtesy NASA/IPAC; image source; no larger image available
Our Infrared World Gallery
This image shows liquid nitrogen in infrared light. To see what happens when peas are added, and what liquid nitrogen looks like in visible light, visit NASA's Frozen in Liquid Nitrogen. For the basics of infrared, you can visit another NASA site, The Infrared (don't miss the image of a man striking a match). For lots more infrared images from the everyday world, including faces, see Our Infrared World Gallery.
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Discovering Infrared--the Herschel Experiment
Visit Discovering Infrared--the Herschel Experiment to learn how infrared radiation was discovered and to find out how you can perform a similar experiment yourself. When Herschel made a solar spectrum with a prism and shined it on a thermometer, which he placed in different parts of the spectrum, he found the highest temperature just beyond the red, where there was no visible light--yet the intensity of sunlight peaks in the visible. To resolve this discrepancy, see Reconciling the Herschel Experiment.


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The PNE forces were supposed to enter the Congo System, overwhelm the Royal Torch Navy, and wipe out all life on the surface of the planet Torch with a kinetic bombardment. However, the Maya Sector Detachment learned of a planned operations by units of Havenite exiles and deduced the likely location of the operation. It sent its brand new Light Cruiser Squadron 7036 to Torch and intercepted the attack.
In the end, the PNE force was destroyed in the Second Battle of Congo (October 1921 PD), and its remnants didn't attempt the planned kinetic bombardment. The Kingdom of Torch survived without damage. (CS2)


text:
Medical Officers at Kandahar, 1881
This photograph of 24 medical officers of the Southern Afghanistan Field Force in Kandahar is from an album of rare historical photographs depicting people and places associated with the Second Anglo-Afghan War. It is estimated that at least 30 surgeon officers accompanied the field force in 1880 in the fighting that culminated at the Battle of Kandahar. The men pictured here were withdrawn from Kandahar by April 1881. The Second Anglo-Afghan War began in November 1878 when Great Britain, fearful of what it saw as growing Russian influence in Afghanistan, invaded the country from British India. The first phase of the war ended in May 1879 with the Treaty of Gandamak, which permitted the Afghans to maintain internal sovereignty but forced them to cede control over their foreign policy to the British. Fighting resumed in September 1879, after an anti-British uprising in Kabul, and finally concluded in September 1880 with the decisive Battle of Kandahar. The album includes portraits of British and Afghan leaders and military personnel, portraits of ordinary Afghan people, and depictions of British military camps and activities, structures, landscapes, and cities and towns. The sites shown are all located within the borders of present-day Afghanistan or Pakistan (a part of British India at the time). About a third of the photographs were taken by John Burke (circa 1843–1900), another third by Sir Benjamin Simpson (1831–1923), and the remainder by several other photographers. Some of the photographs are unattributed. The album possibly was compiled by a member of the British Indian government, but this has not been confirmed. How it came to the Library of Congress is not known.
Title in Original Language
Medical Officers at Kandahar 1881
Type of Item
1 photographic print in an album : albumen
- "The Second Anglo-Afghan War 1878–1880 and the March from Kabul to Kandahar," _URL_
Last updated: September 30, 2016


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Po Leung Kuk Life Planning & Financial Education Centre (LPFEC) was founded in October 2012 by Po Leung Kuk. Formerly known as 'Series of Financial Education', we have since been funded by the government and different enterprises such as the Home Affairs Bureau, HSBC, and Citibank, to provide values education pertaining to life planning and financial education services to students of different ages in Hong Kong, as well as their parents and teachers.
Responding to societal needs, we aim at consolidating the financial foundation of our target groups through cultivating prudent financial values and developing healthy financial habits so as to help them achieve their life goals. We also aim at providing quality service for the wider community to promote their financial and life development.
To set the crucial starting point in a student's life planning and identify one's goals and aspirations, one should first have a firm grasp of their identities and abilities.
Know the World:
One should get hold of the most up-to-date information and requirements from the job market and plan one's strategy before setting off the journey ahead.
Establish the Advantage:
Mastering the abilities and characteristics of career professionals will equip the students with the ability to adapt to different workplace environments and achieve outstanding performances in any industry and position.
Seize the Future:
Consolidate the above three qualities and be ready for the future.
Life Planning & Financial Education Centre
Tel.: 2185 6047
Email: [email protected]
Facebook: 保良局 生涯規劃及理財教育中心
YouTube: Innovation Entrepreneurship Service


text:
We work in Somerville, MA & Madison, WI
Discovery & Support
Due to the challenging and creative nature of Understory's work, the team strives to embody their five fundamental values—supportive interactions, relentless adaptability, confident collaboration, holistic perspective, and celebrated progress—consistently. As they devotedly pursue revolutionizing the weather industry, staying grounded in their values allows them to do so in a life-work balanced and fun-loving atmosphere.
What Understory Does
Understory generates hyper-local atmospheric data powered by dense grids of proprietary weather stations. The company's ground-truth detection provides exciting, real-time data on the movement and intensity of weather events. The team at Understory works hard to discover new ways to provide weather-related insights and early detection of weather risks.
Understory in the World
Innovating Weather Data
Understory detects rain, hail, wind, and other weather events where the risk to life and property is the greatest—directly at the earth's surface. While traditional, radar-enabled weather centers collect data by analyzing conditions observed in the atmosphere, Understory uses sensor-enabled data to make predictions that impact industries such as insurance, agriculture, and broadcast.


text:
Journal of Cognitive Neuroscience
Peripheral and central structures along the auditory pathway contribute to speech processing and learning. However, because speech requires the use of functionally and acoustically complex sounds which necessitates high sensory and cognitive demands, long-term exposure and experience using these sounds is often attributed to the neocortex with little emphasis placed on subcortical structures. The present study examines changes in the auditory brainstem, specifically the frequency following response (FFR), as native English-speaking adults learn to incorporate foreign speech sounds (lexical pitch patterns) in word identification. The FFR presumably originates from the auditory midbrain and can be elicited preattentively. We measured FFRs to the trained pitch patterns before and after training. Measures of pitch tracking were then derived from the FFR signals. We found increased accuracy in pitch tracking after training, including a decrease in the number of pitch-tracking errors and a refinement in the energy devoted to encoding pitch. Most interestingly, this change in pitch-tracking accuracy only occurred in the most acoustically complex pitch contour (dipping contour), which is also the least familiar to our English-speaking subjects. These results not only demonstrate the contribution of the brainstem in language learning and its plasticity in adulthood but also demonstrate the specificity of this contribution (i.e., changes in encoding only occur in specific, least familiar stimuli, not all stimuli). Our findings complement existing data showing cortical changes after second-language learning, and are consistent with models suggesting that brainstem changes resulting from perceptual learning are most apparent when acuity in encoding is most needed.


text: Scientists at Tel Aviv University in Israel have discovered that plants produce sounds in ultrasonic frequencies, outside the range of human hearing. Researchers captured the sounds of plants "screaming" when they were harvested, describing them as a polling or clicking noise that increased when the plant was under stress. Lilach Hadany, an evolutionary biologist at the university, explained that plants interact with insects and other animals on a regular basis and use sound for communication, so it made sense for them to also produce sounds when stressed. The team recorded tomato and tobacco plants in stressed and unstressed conditions and found that distressed plants emitted high-pitched sounds that were undetectable by humans but could be heard within a radius of over a meter. Unstressed plants did not produce much noise at all. While the exact mechanism through which plants produce these noises is still unknown, this study sheds light on an intriguing aspect of plant biology and opens up new possibilities for understanding the ways in which plants communicate with their environment.


text:
Arthur M. Sackler Museum, 485 Broadway, Cambridge, MA 02138
Jeﬀrey F. Hamburger, Kuno Francke Professor of German Art and Culture, Department of History of Art and Architecture, Harvard University. Lynette Roth, Daimler-Benz Associate Curator of the Busch Reisinger Museum, Division of Modern and Contemporary Art, Harvard Art Museums
German artists of the 20th century, most famously Brücke expressionists, consciously employed the medium of wood in their practice, playing up its associations with the medieval and "primitive" traditions. In conjunction with a special display focusing on disparate objects made from the same material, Hamburger and Roth will discuss the intersections between medieval and modern art in wood, from a 15th-century Madonna and Child to expressionist printmaking and sculpture.
This series considers objects from more than one point of view. The informal talks, many of them by Harvard Art Museums curators, conservators, and educators and Harvard University faculty members, are designed to stimulate thinking about works of art and to encourage participants to explore their own ways of seeing.
Free with the price of admission.
Gallery talks are informal and include discussion. Limited to 25 participants; please arrive early.


text:
Open to the Public
Middlebury's recently launched Climate Action Capacity Project seeks to support all students in finding meaningful ways to engage and act on the climate crisis. One of the hallmark initiatives of the Project is the Climate Action Fellowship program, developed for students from varied backgrounds and interests. As they wrap up the inaugural year of the Climate Action Fellowship, participating students will reflect on their backgrounds, the work and learning they've done through the Fellowship and what they hope for themselves and Middlebury going forward.
Featuring Middlebury College students:
- Mishka Banuri '24
- Kate Goodman '24
- Eva Morgan '22 Neuroscience major
- Natalie Penna '24
- Elizabeth Reyes '22 Environmental Justice major
- Maria Than '21 Neuroscience major
- Connor Wertz '22 Environmental Justice major
Please visit go/woodincolloquiumseries for Zoom details.
- Sponsored by:
- Environmental Studies


Textile Width 750mm, China
Discharge dyeing works with the removal of the dye originally applied to the fabric. In this case, it was originally a red piece of fabric using a dye remover was applied through a stencil resulting in a pattern of the red colour. This technique was introduced into China in the 50s which became very popular in the rural area. Traditional fabric dyeing technique in China are based on vegetable dye where the intensity of the colour will run through time and wash. Discharge dyeing was most welcomed as the colour stays and the patterns are fine. This fabric has a butterfly and flower print.


text:
Flashing and Drainage
Flashing is a crucial component in modern masonry walls. Whereas solid, multi-wythe masonry walls mostly constructed before the 1900s manage water infiltration through absorption and evaporation, modern masonry walls must accommodate moisture penetration by providing a collection and drainage system. This system consists of flashing and weeps. Flashing also serves to prevent water penetration at interfaces with other building systems, such as windows and other penetrations.
Cavity wall design recognizes that water penetration through masonry is inevitable, and it provides the necessary means to manage moisture. Flashing location, material selection, detailing and proper installation are all significantly important to ensure that water does not penetrate to the interior areas of buildings.
|Flashing seams or laps that are not properly sealed can lead to water leakage.
Locating flashing is a fairly straightforward task, provided water flow and the limitations of the building wall components are well understood. Masonry walls are porous, often including paths for water penetration, such as cracks and poorly bonded mortar joints; even if properly installed, window perimeter and coping stone sealant degrades over time. Also, through-wall penetrations at pipes, conduit, vents and air conditioning sleeves obviously breach the skin of a building. Each of these locations provides the opportunity for water penetration.
Once moisture has penetrated through the exterior veneer of the masonry wall, it will begin flowing down the interior face of the veneer. Where the vertical flow of water is interrupted by a horizontal surface, water has the potential to penetrate to the interior areas of a building. Such interruptions typically occur at wall bases, shelf angles, lintels, slab edges, through-wall penetrations and windowsills. These are the primary locations where flashing is necessary to manage water.
Flashing also is used at other locations to prevent moisture penetration, more so than managing water after penetration. This is typically the case at coping stones on parapet walls and at the head and jambs of windows.
It should be noted that most model building codes, including the 2000, 2003 and 2006 versions of the International Building Code (IBC), require installation of flashing at various areas of masonry walls. The specific locations where flashing is required in each version of the IBC have changed slightly over the years; however, the intent remains the same.
|Failure to properly install flashing at wall corners and intersections can lead to water leakage, and possibly mold.
Flashing materials must be resistant to punctures during construction, they must be corrosion resistant, they must not absorb moisture, and they should be fairly easy to install. More importantly, all flashing materials should be able to provide their intended waterproofing function. Flashing material often is selected based on cost and suitability, but service life also should be considered. Failure of the flashing prior to the end of the useful life of a building will require expensive repairs; therefore, only highly durable materials should be used in masonry construction.
The most durable flashing materials are sheet metals typically copper and stainless steel. These materials are resistant to punctures, corrosion and water absorption. However, installation is somewhat more difficult than for flexible materials, since they require shop or field bending prior to installation. Another factor is the sealing of laps and joints, which normally is accomplished by soldering the sheet metal sections together. Sheet metals also tend to be the most expensive flashing materials.
One of the most common materials used for flashing is rubberized asphalt. It typically comes in variable width sheets and is self-adhesive. The sheets are manufactured through careful blending of rubberizing agents with asphalt (typically SBS or SEBS). The rubberized asphalt then is laminated with a backing material, usually high-density polyethylene. These products are usually 40 mils thick, are flexible, easy to install, non-corrosive, and will not absorb water. They are a somewhat less durable than sheet metal since they are more susceptible to punctures. However, since this type of flashing often is fully adhered to the substrate, a puncture will not necessarily result in a leak. Nonetheless, punctures should not be tolerated in any kind of flashing installation. Laps and joints in rubberized asphalt flashing materials are sealed through the self-adhesive properties of the material.
Thin approximately 20 mils thick or less polyethylene sheeting (plastic) also is being used as flashing. However, this is not a durable material. In such thicknesses, polyethylene has nearly no puncture resistance and will degrade over short periods of time. Additionally, sealing joints and laps in thin polyethylene or other types of plastic sheets is difficult.
There are many other types of through-wall flashing products such as laminated copper sheets. Before specifying any flashing materials, they should be evaluated for their durability and installation practicality.
Flashing accessories such as termination bars, drip edges, solder, primers, adhesives and sealants must also be durable and compatible with flashing and other wall materials. Metal components must be non-corrosive and sealants must remain soft and flexible. No material should adversely affect any other material within the wall system.
|End dams are often formed using a combination of flexible flashing with a sheet metal backup to ensure proper geometry of the flashing is maintained during construction.
Although quality mason contractors should fully understand the purpose of flashing and installation requirements, flashing systems should be thoroughly detailed on the construction drawings. These details should provide direction to the contractor in forming end dams and corners, installing termination bars and drip edges, sealing seams, providing expansion joints, and installing proper flashing support.
Detailing flashing to collect and divert water from the interior cavity wall surfaces to the exterior should consider the following:
- End dams must be used at the ends of each length of non-continuous flashing to force water to the exterior of the masonry cavity walls. The most common location for end dams is at the ends of window lintels and windowsills. Without them, water will flow along and off of the end of the lintel into the wall cavity (path of least resistance). However, since the window lintel spans the full width of the wall cavity, water can spill into the cavity at or near the interior walls, exposing them to potential water penetration.
- Proper detailing at corners is necessary to ensure moisture does not penetrate through the flashing system. Details for corners must indicate locations for seams and laps. Corner details may include the use of preformed sheet metal, even if rubberized asphalt flashing is used.
- Flashing must extend through the full thickness of the wall and terminate beyond the face of the wall with a drip edge. Terminating flashing within the exterior wythe of masonry could allow water to travel back beneath the flashing, into the cavity, and possibly back to the interior wythe of the wall system. Use of self-adhesive rubberized asphalt flashing should include separate, stainless steel drip edges adhered directly to lintels and shelf angles, beneath the self-adhesive flashing. This is because rubberized asphalts will degrade with UV exposure. Therefore, when used with a stainless steel drip edge, the rubberized asphalt does not need to extend beyond the face of the exterior wall.
- The interior vertical leg of flashing should extend up a minimum of eight inches. The top edge of the flashing must be terminated properly. The two most common termination methods are embedment in a bed joint of the masonry backup or with a termination bar. Termination bars should be fairly stiff to provide a uniform clamping force between the fasteners and resist bending during installation. A "[" shape often is best for this purpose. Termination bars should also be corrosion resistant.
- Details of seams should include a minimum lap length of four inches. Although metal flashing often is soldered at the seams, sometimes it is better to adhere the lapped areas with flexible sealant. This will accommodate thermal expansion and contraction where soldered seams will not.
- Flexible flashing must be fully supported across the full width of the wall cavity below. At shelf angles and lintels this is always the case. However, flexible flashing placed at floor lines without shelf angles will form a trough over the width of the cavity if supplemental support is not provided. This trough will retain water and can cause large leaks where there are any small imperfections in the flashing seams. Water will then flow through the seams, into the cavity space below and possibly down the face of the interior wythe, exposing interior areas of a building to water penetration. Supplemental support typically is provided through installation of a sheet metal angle attached to the masonry backup wythe and spanning across the full width of the cavity.
- Penetrations through flashing materials, such as at coping stone anchors, must be detailed to ensure the penetration is watertight. Most often, this is accomplished with a flexible sealant or mastic.
- Weeps must be placed in the mortar joint immediately above the flashing at a maximum of 24 inches on center. In general, the larger the weeps, the better. Cell vents installed in head joints, typically the same size as a head joint, will quickly remove more water than cotton rope or small plastic tube weeps.
Flashing details are often best presented in isometric views. In particular, details at corners and end dams are difficult to show clearly in traditional, two-dimensional details.
Although not specifically the topic of this article, it is important to note that flashing cannot serve its intended purpose if the wall cavity is too narrow and not kept clean during construction. For cavity walls to function as intended, they must be designed with a minimum inch-inch wide cavity. This dimension is considered the minimum width necessary, as recommended by the Brick Industry Association, to prevent the cavity from being bridged by mortar or other materials and to allow water to cross over to the interior wythe. Narrower cavities are far more difficult to keep clear during construction. However, it should be noted that mortar brid


Save the date! Android Dev Summit is coming to Sunnyvale, CA on Oct 23-24, 2019.
Inspect energy use with Energy Profiler
The Energy Profiler helps you to find where your app uses more energy than necessary.
The Energy Profiler monitors the use of the CPU, network radio, and GPS sensor, and it displays a visualization of how much energy each of these components uses. The Energy Profiler also shows you occurrences of system events (wake locks, alarms, jobs, and location requests) that can affect energy consumption.
The Energy Profiler does not directly measure energy consumption. Rather, it uses a model that estimates the energy consumption for each resource on the device.
Energy Profiler overview
The Energy Profiler appears as a row in of the Profiler window when you run your app on a connected device or Android Emulator running Android 8.0 (API 26) or higher.
To open the Energy Profiler, follow these steps:
 1. Select View > Tool Windows > Profiler or click Profile in the toolbar.
 If prompted by the Select Deployment Target dialog, choose the device to which to deploy your app for profiling. If you've connected a device over USB but don't see it listed, ensure that you have enabled USB debugging.
 2. Click anywhere in the Energy timeline to open the Energy Profiler.
When you open the Energy Profiler, it immediately starts displaying your app's estimated energy usage. You should see something similar to figure 1.
Figure 1. Timelines in the Energy Profiler.
As indicated in figure 1, the default view for the Energy Profiler includes the following timelines:
 1. Event timeline: Shows the activities in your app as they transition through different states in their lifecycle. This timeline also indicates user interactions with the device, including screen rotation events.
 2. Energy timeline: Shows estimated energy consumption of your app.
 3. System timeline: Indicates system events that may affect energy consumption.
To see a breakdown of energy use by CPU, network, and location (GPS) resources, as well as relevant system events, place your mouse pointer over a bar in the Energy timeline.
Inspect system events: wake locks, jobs, and alarms
You can use the Energy Profiler to find system events that can affect energy consumption, including wake locks, jobs, and alarms:
 - A wake lock is a mechanism for keeping the CPU or screen on when the device would otherwise go to sleep. For example, an app that plays video may use a wake lock to keep the screen on when there is no user interaction with the device. Requesting a wake lock is not an energy-intensive action, but failing to release a wake lock can cause the screen or CPU to stay on for longer than necessary, which can drain the battery quickly. For more information, see the guidance for working with wake locks.
 - You can use alarms to run background tasks outside of the context of your app at regular intervals. When an alarm goes off, it may wake up the device and run energy-intensive code. For more information, see the guidance for working with alarms.
 - You can use jobs to perform actions under specified conditions, such as when the network becomes available. You create jobs with JobBuilder and schedule them with JobScheduler. In many cases, the recommended approach is to use jobs with JobScheduler rather than alarms or wake locks.
 - Location requests use the GPS sensor, which can consume significant amounts of energy. For information on how to make energy-efficient location requests, see Optimize location for battery.
The Energy Profiler makes it easy to find where your app uses each of these features so that you can make informed decisions about how each is used.
The Energy Profiler shows a color-coded bar in the System timeline below the Energy timeline for the time range when a system event is active. Wake locks are represented with a red bar, jobs and alarms are indicated with a yellow bar, and location events are indicated with a light purple bar.
Figure 2 shows the Energy Profiler and the code editor open to the source code responsible for an unreleased wake lock.
Figure 2. Using the Energy Profiler to find a wake lock.
 1. To open the System Event pane and show details for events such as wake locks, select a time range in the Energy timeline.
 2. To open the Wake Lock Details pane and show details for a specific wake lock, select the wake lock in the System Event pane.
 3. To open the code editor and jump to the source code for a wake lock, double-click the entry for the calling method at the top of the call stack in the Wake Lock Details pane.
 4. The call to acquire the wake lock is highlighted in the source editor.
The instructions for showing details for other system events are essentially the same as for wake locks, with information specific to each kind of event in its details pane. For example, the Job Details pane shows call stacks for the portions of the code where the job is scheduled and where the job is finished.


text:
Vines frozen to protect France's best vintages from climate change
The so-called Louvre of Wine — the world's biggest collection of vines — is to be frozen in the hope that long-lost grape varieties could eventually be revived to satisfy the tastebuds of future drinkers if favourite grapes fall victim to climate change.
The vines are among the plants due to be placed in a €10.4 million low temperature conservation centre opened this month by the French National Institute for Research into Agriculture, Food and the Environment (Inrae). It is part of a plan to help vintners and farmers to adapt to global warming.
Tissue from the vines will be preserved at minus 196C in liquid nitrogen in a wine sector cryobank. The aim is to safeguard the world's vine heritage so that if common


text: Mercy High School, originally named Our Lady of Mercy Academy, was established by the Sisters of Mercy in 1882. During its early years, Mercy Academy educated children in grades K-12. As the need for a quality, Catholic education grew, so did our schools in the region. Catholic schools were formed in Chico, Redding, and Oroville. In 2017, to ensure a robust future, these school were reorganized as the Northern Valley Catholic Academies.


Developer Portal for YouTrack and Hub Help
Operations with Specific Project
This resource provides access to projects.
Resource
/api/admin/projects/{projectID}
Returned entity
Project. For the description of the entity attributes, see Supported Fields section.
Supported methods
Project attributes
Represents a YouTrack project.
Extends IssueFolder
This table describes attributes of the Project entity.
 - To receive an attribute in the response from the server, specify it explicitly in the fields request parameter.
 - To update an attribute, provide it in the body of a POST request.
Field
Type
Description
id
String
The ID of the project. Read-only.
startingNumber
Long
Starting number for issues in project. This property can be set only during creation of the new project.
shortName
String
The ID of the project. This short name is also a prefix for an issue ID. Can be null.
description
String
The description of the project as shown on the project profile page. Can be null.
leader
User
The user who is set as the project owner. Can be null.
createdBy
User
The user who created the project. Can be null.
issues
Array of Issues
A list of all issues that belong to the project.
customFields
The set of custom fields that are available in the project.
archived
Boolean
If the project is currently archived, this property is 'true'.
fromEmail
String
The email address that is used to send notifications for the project. If a 'From' address is not set for the project, the default 'From' address for the YouTrack server is returned.
replyToEmail
String
The email address that is used as the reply email to send notifications for the project. If it is not set for the project, the default address for the YouTrack server is returned. Can be null.
template
Boolean
If true, this project is a template.
iconUrl
String
The URL of the icon of the project. Read-only. Can be null.
team
UserGroup
Read-only user group representing all members of the project team. Read-only.
name
String
The name of the issue folder. Can be null.
Read a Specific Project
Get the settings of the specific project.
Required permissions
Requires permissions: Read Project Basic or Update Project
Request syntax
GET /api/admin/projects/{projectID}?{fields}
{projectID}
ID of the project. To identify the project, you can use either its database entity ID or the short name.
Request parameters
Parameter
Type
Description
fields
String
A list of Project attributes that should be returned in the response. If no field is specified, only the entityID is returned.
Sample
Sample request
_URL_
Sample response body
{ "description": "A project created using REST API", "leader": { "login": "root", "name": "John Smith", "id": "1-1", "$type": "User" }, "shortName": "RP", "createdBy": { "login": "john.doe", "name": "John Doe", "id": "1-2", "$type": "User" }, "name": "Rest Project", "id": "0-6", "$type": "Project" }
Update a Specific Project
Update settings of a project with specific ID.
Required permissions
Requires permissions: Update Project
Request syntax
POST /api/admin/projects/{projectID}?{fields}
{projectID}
ID of the project. To identify the project, you can use either its database entity ID or the short name.
Request parameters
Parameter
Type
Description
fields
String
A list of Project attributes that should be returned in the response. If no field is specified, only the entityID is returned.
Sample
Sample request
curl -L -X POST '_URL_ \ -H 'Content-Type: application/json' \ -H 'Authorization: Bearer perm:am9obi5kb2U=.UG9zdG1hbiBKb2huIERvZQ==.jJe0eYhhkV271j1lCpfknNYOEakNk7' \ --data-raw '{ "leader":{"id":"1-1"}, "description":"A project created using REST API" }'
Sample request body
{ "leader":{"id":"1-1"}, "description":"A project created using REST API" }
Delete a Specific Project
Delete a project with specific ID.
Request syntax
DELETE /api/admin/projects/{projectID}
{projectID}
ID of the project. To identify the project, you can use either its database entity ID or the short name.
Request parameters
Parameter
Type
Description
fields
String
A list of Project attributes that should be returned in the response. If no field is specified, only the entityID is returned.
Sample
Identify the target project by its entity ID. For a successful request, server returns 200 OK code and an empty response payload.
Sample request
_URL_
Last modified: 19 September 2022


text:
What do we build?
Houses, of course.Or housing solutions, the current term forthe physical work: new construction of single-and multifamily houses, rehabs, repairs, incre-mental building—an upgraded oor or a newroof until a family can aord more.But Habitat for Humanity builds so muchmore. Disaster recovery toolkits and shelters,weatherization, water and sanitation projects,housing micronance systems, schools andcommunity buildings are also part of thephysical work of Habitat.Habitat also builds in the mind and spirit:community, relationships, friendship, families,health, partnerships that grow to coalitionsthat revive neighborhoods, tolerance amongdierent faiths and ethnicities, training inconstruction skills, training in nancial andlegal literacy, advocates to speak for a worldwhere everyone has a decent place to live.And Habitat for Humanity never builds
, working alongside thosewho need shelter. Tat builds or rekindles thesense of the dignity all human beings share.Habitat for Humanity, through the grace of God, is building a dierent world, a better world.