Our dedication to meeting the needs of others doesn’t stop with our customers.
We believe good work is acknowledged and celebrated. You’re not just a
number here, but an integral part of the team.
Cleaner’s Supply was founded on service. Giving people great products at a
great price, while also treating them like people. It’s not just the right thing to
do, it feels good to do it.
From the moment you step through our doors, you can tell we're different. Even
though the environment is fast paced, it's also friendly. People remember your
name. And friends are easy to make.
Any of these posts ,images and pages may not be reproduced on another
blog/website without the author's expressed written consent.


1, our meals usually have atleast onr item made of some kind of grain . Other on dish of and vegetables .2,meal could consist of chapati, dal, and brinjal curry . Another may be rice samber and a vegetables preparation of bhindi.3,these ingredients contain some components that are needed by our body these components are calld nutrients the major nutrients in our food are carbohydrates, proteins, fats, vitamins and minerals.4,food contains dietary fibre and water which are also needed by our body. 5,carbohydrates mainly provide energy to our body . Fats also give us energy . In fact ,fats give much more energy ascompared to the same amount of carbhydrates .food containing fats and carbhydrates are also called energy giving foods.6,proteins are needed for the growth and repair of our body .7small quantities. Vitamin A keeps our skin and eyes healty . Vitamin c helps body to fight againt many diseases. Vitamin d helps our body to use calcium for bones and teeth.


X-Axis: Attack Health Mana Cost
Y-Axis: Attack Health Mana Cost
Minion Type / Race All
Player Class All
Mechanic All
Color: Grayscale Red Yellow Green Cyan Blue Magenta


Today's cartoons: The illustrated news 25 Nov 2019, 11:15 The news of the day as interpreted in the work of our award-winning cartoonists.


${require('./js/videoplayer/index.html')}
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${require('./js/comment/index.html')} ${require('./js/videolist/index.html')}
${require('./js/commentsender/index.html')}


{% extends 'base_page.html' %} {% load static %} {% block content %} 404 Page Not Found Go Home © 2018 themefisher.com All Rights Reserved {% endblock %}
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Message from the desk of Kendle Colebrooke
A revolution is about to begin throughout the Commonwealth of the Bahamas. If you want to be apart of the many men and women that want to make a difference in this country, feel free to reach out to us by phone or through our social media channels. The time for change is now!


If the vendor interaction has flavor text, this is some of it.
If the vendor interaction has flavor text, this is the rest of it.
The header for the interaction dialog.
The localized text telling the player what to do when they see this dialog.
The position of this interaction in its parent array. Note that this is NOT content agnostic, and should not be used as such.
The enumerated version of the possible UI hints for vendor interactions, which is a little easier to grok than the hash found in uiInteractionType.
If this interaction dialog is about a quest, this is the questline related to the interaction. You can use this to show the quest overview, or even the character's status with the quest if you use it to find the character's current Quest Step by checking their inventory against this questlineItemHash's DestinyInventoryItemDefinition.setData.
Mapped to DestinyInventoryItemDefinition in the manifest.
The potential replies that the user can make to the interaction.
If this interaction is displaying rewards, this is the text to use for the header of the reward-displaying section of the interaction.
If the vendor's reward list is sourced from one of his categories, this is the index into the category array of items to show.
If this interaction is meant to show you sacks, this is the list of types of sacks to be shown. If empty, the interaction is not meant to show sacks.
A UI hint for the behavior of the interaction screen. This is useful to determine what type of interaction is occurring, such as a prompt to receive a rank up reward or a prompt to choose a reward for completing a quest. The hash isn't as useful as the Enum in retrospect, well what can you do. Try using interactionType instead.
If >= 0, this is the category of sale items to show along with this interaction dialog.
A Vendor Interaction is a dialog shown by the vendor other than sale items or transfer screens. The vendor is showing you something, and asking you to reply to it by choosing an option or reward.


This voting procedure is simple, but it is not recommended. We provided more secure way of voting, which gives you a possibility of signing your voting transaction while being offline
Check if this API Endpoint supports a chain, on which you want to vote, by comparing value of chain_id.


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|
mbed TLS v2.16.11
|
The HMAC_DRBG pseudorandom generator. More...
Go to the source code of this file.
Data Structures | |
| struct | mbedtls_hmac_drbg_context |
Macros | |
| #define | MBEDTLS_ERR_HMAC_DRBG_REQUEST_TOO_BIG -0x0003 |
| #define | MBEDTLS_ERR_HMAC_DRBG_INPUT_TOO_BIG -0x0005 |
| #define | MBEDTLS_ERR_HMAC_DRBG_FILE_IO_ERROR -0x0007 |
| #define | MBEDTLS_ERR_HMAC_DRBG_ENTROPY_SOURCE_FAILED -0x0009 |
SECTION: Module settings | |
The configuration options you can set for this module are in this section. Either change them in config.h or define them on the compiler command line. | |
| #define | MBEDTLS_HMAC_DRBG_RESEED_INTERVAL 10000 |
| #define | MBEDTLS_HMAC_DRBG_MAX_INPUT 256 |
| #define | MBEDTLS_HMAC_DRBG_MAX_REQUEST 1024 |
| #define | MBEDTLS_HMAC_DRBG_MAX_SEED_INPUT 384 |
| #define | MBEDTLS_HMAC_DRBG_PR_OFF 0 |
| #define | MBEDTLS_HMAC_DRBG_PR_ON 1 |
| #define | MBEDTLS_DEPRECATED |
| typedef struct mbedtls_hmac_drbg_context | mbedtls_hmac_drbg_context |
| void | mbedtls_hmac_drbg_init (mbedtls_hmac_drbg_context *ctx) |
| HMAC_DRBG context initialization. More... | |
| int | mbedtls_hmac_drbg_seed (mbedtls_hmac_drbg_context *ctx, const mbedtls_md_info_t *md_info, int(*f_entropy)(void *, unsigned char *, size_t), void *p_entropy, const unsigned char *custom, size_t len) |
| HMAC_DRBG initial seeding. More... | |
| int | mbedtls_hmac_drbg_seed_buf (mbedtls_hmac_drbg_context *ctx, const mbedtls_md_info_t *md_info, const unsigned char *data, size_t data_len) |
| Initilisation of simpified HMAC_DRBG (never reseeds). More... | |
| void | mbedtls_hmac_drbg_set_prediction_resistance (mbedtls_hmac_drbg_context *ctx, int resistance) |
| This function turns prediction resistance on or off. The default value is off. More... | |
| void | mbedtls_hmac_drbg_set_entropy_len (mbedtls_hmac_drbg_context *ctx, size_t len) |
| This function sets the amount of entropy grabbed on each seed or reseed. More... | |
| void | mbedtls_hmac_drbg_set_reseed_interval (mbedtls_hmac_drbg_context *ctx, int interval) |
| Set the reseed interval. More... | |
| int | mbedtls_hmac_drbg_update_ret (mbedtls_hmac_drbg_context *ctx, const unsigned char *additional, size_t add_len) |
| This function updates the state of the HMAC_DRBG context. More... | |
| int | mbedtls_hmac_drbg_reseed (mbedtls_hmac_drbg_context *ctx, const unsigned char *additional, size_t len) |
| This function reseeds the HMAC_DRBG context, that is extracts data from the entropy source. More... | |
| int | mbedtls_hmac_drbg_random_with_add (void *p_rng, unsigned char *output, size_t output_len, const unsigned char *additional, size_t add_len) |
| This function updates an HMAC_DRBG instance with additional data and uses it to generate random data. More... | |
| int | mbedtls_hmac_drbg_random (void *p_rng, unsigned char *output, size_t out_len) |
| This function uses HMAC_DRBG to generate random data. More... | |
| void | mbedtls_hmac_drbg_free (mbedtls_hmac_drbg_context *ctx) |
| This function resets HMAC_DRBG context to the state immediately after initial call of mbedtls_hmac_drbg_init(). More... | |
| MBEDTLS_DEPRECATED void | mbedtls_hmac_drbg_update (mbedtls_hmac_drbg_context *ctx, const unsigned char *additional, size_t add_len) |
| This function updates the state of the HMAC_DRBG context. More... | |
| int | mbedtls_hmac_drbg_write_seed_file (mbedtls_hmac_drbg_context *ctx, const char *path) |
| This function writes a seed file. More... | |
| int | mbedtls_hmac_drbg_update_seed_file (mbedtls_hmac_drbg_context *ctx, const char *path) |
| This function reads and updates a seed file. The seed is added to this instance. More... | |
| int | mbedtls_hmac_drbg_self_test (int verbose) |
| The HMAC_DRBG Checkup routine. More... | |
The HMAC_DRBG pseudorandom generator.
This module implements the HMAC_DRBG pseudorandom generator described in NIST SP 800-90A: Recommendation for Random Number Generation Using Deterministic Random Bit Generators.
Definition in file hmac_drbg.h.
| #define MBEDTLS_DEPRECATED |
Definition at line 431 of file hmac_drbg.h.
| #define MBEDTLS_ERR_HMAC_DRBG_ENTROPY_SOURCE_FAILED -0x0009 |
The entropy source failed.
Definition at line 74 of file hmac_drbg.h.
| #define MBEDTLS_ERR_HMAC_DRBG_FILE_IO_ERROR -0x0007 |
Read/write error in file.
Definition at line 73 of file hmac_drbg.h.
| #define MBEDTLS_ERR_HMAC_DRBG_INPUT_TOO_BIG -0x0005 |
Input too large (Entropy + additional).
Definition at line 72 of file hmac_drbg.h.
| #define MBEDTLS_ERR_HMAC_DRBG_REQUEST_TOO_BIG -0x0003 |
Too many random requested in single call.
Definition at line 71 of file hmac_drbg.h.
| #define MBEDTLS_HMAC_DRBG_MAX_INPUT 256 |
Maximum number of additional input bytes
Definition at line 89 of file hmac_drbg.h.
| #define MBEDTLS_HMAC_DRBG_MAX_REQUEST 1024 |
Maximum number of requested bytes per call
Definition at line 93 of file hmac_drbg.h.
| #define MBEDTLS_HMAC_DRBG_MAX_SEED_INPUT 384 |
Maximum size of (re)seed buffer
Definition at line 97 of file hmac_drbg.h.
| #define MBEDTLS_HMAC_DRBG_PR_OFF 0 |
No prediction resistance
Definition at line 102 of file hmac_drbg.h.
| #define MBEDTLS_HMAC_DRBG_PR_ON 1 |
Prediction resistance enabled
Definition at line 103 of file hmac_drbg.h.
| #define MBEDTLS_HMAC_DRBG_RESEED_INTERVAL 10000 |
Interval before reseed is performed by default
Definition at line 85 of file hmac_drbg.h.
| typedef struct mbedtls_hmac_drbg_context mbedtls_hmac_drbg_context |
HMAC_DRBG context.
| void mbedtls_hmac_drbg_free | ( | mbedtls_hmac_drbg_context * | ctx | ) |
This function resets HMAC_DRBG context to the state immediately after initial call of mbedtls_hmac_drbg_init().
| ctx | The HMAC_DRBG context to free. |
| void mbedtls_hmac_drbg_init | ( | mbedtls_hmac_drbg_context * | ctx | ) |
HMAC_DRBG context initialization.
This function makes the context ready for mbedtls_hmac_drbg_seed(), mbedtls_hmac_drbg_seed_buf() or mbedtls_hmac_drbg_free().
| ctx | HMAC_DRBG context to be initialized. |
| int mbedtls_hmac_drbg_random | ( | void * | p_rng, |
| unsigned char * | output, | ||
| size_t | out_len | ||
| ) |
This function uses HMAC_DRBG to generate random data.
This function automatically reseeds if the reseed counter is exceeded or prediction resistance is enabled.
| p_rng | The HMAC_DRBG context. This must be a pointer to a mbedtls_hmac_drbg_context structure. |
| output | The buffer to fill. |
| out_len | The length of the buffer in bytes. This must be at most MBEDTLS_HMAC_DRBG_MAX_REQUEST. |
0
if successful. out_len
> MBEDTLS_HMAC_DRBG_MAX_REQUEST. | int mbedtls_hmac_drbg_random_with_add | ( | void * | p_rng, |
| unsigned char * | output, | ||
| size_t | output_len, | ||
| const unsigned char * | additional, | ||
| size_t | add_len | ||
| ) |
This function updates an HMAC_DRBG instance with additional data and uses it to generate random data.
This function automatically reseeds if the reseed counter is exceeded or prediction resistance is enabled.
| p_rng | The HMAC_DRBG context. This must be a pointer to a mbedtls_hmac_drbg_context structure. |
| output | The buffer to fill. |
| output_len | The length of the buffer in bytes. This must be at most MBEDTLS_HMAC_DRBG_MAX_REQUEST. |
| additional | Additional data to update with. If this is NULL , there is no additional data and add_len should be 0 . |
| add_len | The length of the additional data. This must be at most MBEDTLS_HMAC_DRBG_MAX_INPUT. |
0
if successful. output_len
> MBEDTLS_HMAC_DRBG_MAX_REQUEST. add_len
> MBEDTLS_HMAC_DRBG_MAX_INPUT. | int mbedtls_hmac_drbg_reseed | ( | mbedtls_hmac_drbg_context * | ctx, |
| const unsigned char * | additional, | ||
| size_t | len | ||
| ) |
This function reseeds the HMAC_DRBG context, that is extracts data from the entropy source.
| ctx | The HMAC_DRBG context. |
| additional | Additional data to add to the state. If this is NULL , there is no additional data and len should be 0 . |
| len | The length of the additional data. This must be at most MBEDTLS_HMAC_DRBG_MAX_INPUT and also at most MBEDTLS_HMAC_DRBG_MAX_SEED_INPUT - entropy_len where entropy_len is the entropy length (see mbedtls_hmac_drbg_set_entropy_len()). |
0
if successful. | int mbedtls_hmac_drbg_seed | ( | mbedtls_hmac_drbg_context * | ctx, |
| const mbedtls_md_info_t * | md_info, | ||
| int(*)(void *, unsigned char *, size_t) | f_entropy, | ||
| void * | p_entropy, | ||
| const unsigned char * | custom, | ||
| size_t | len | ||
| ) |
HMAC_DRBG initial seeding.
Set the initial seed and set up the entropy source for future reseeds.
A typical choice for the f_entropy
and p_entropy
parameters is to use the entropy module:
f_entropy
is mbedtls_entropy_func();p_entropy
is an instance of mbedtls_entropy_context initialized with mbedtls_entropy_init() (which registers the platform's default entropy sources).You can provide a personalization string in addition to the entropy source, to make this instantiation as unique as possible.
md_info
is SHA-1;md_info
is SHA-224;md_info
is SHA-256, SHA-384 or SHA-512. Note that SHA-256 is just as efficient as SHA-224. The security strength can be reduced if a smaller entropy length is set with mbedtls_hmac_drbg_set_entropy_len().| ctx | HMAC_DRBG context to be seeded. |
| md_info | MD algorithm to use for HMAC_DRBG. |
| f_entropy | The entropy callback, taking as arguments the p_entropy context, the buffer to fill, and the length of the buffer. f_entropy is always called with a length that is less than or equal to the entropy length. |
| p_entropy | The entropy context to pass to f_entropy . |
| custom | The personalization string. This can be NULL , in which case the personalization string is empty regardless of the value of len . |
| len | The length of the personalization string. This must be at most MBEDTLS_HMAC_DRBG_MAX_INPUT and also at most MBEDTLS_HMAC_DRBG_MAX_SEED_INPUT - entropy_len * 3 / 2 where entropy_len is the entropy length described above. |
0
if successful. md_info
is invalid. f_entropy
failed. | int mbedtls_hmac_drbg_seed_buf | ( | mbedtls_hmac_drbg_context * | ctx, |
| const mbedtls_md_info_t * | md_info, | ||
| const unsigned char * | data, | ||
| size_t | data_len | ||
| ) |
Initilisation of simpified HMAC_DRBG (never reseeds).
This function is meant for use in algorithms that need a pseudorandom input such as deterministic ECDSA.
| ctx | HMAC_DRBG context to be initialised. |
| md_info | MD algorithm to use for HMAC_DRBG. |
| data | Concatenation of the initial entropy string and the additional data. |
| data_len | Length of data in bytes. |
0
if successful. or md_info
is invalid. | int mbedtls_hmac_drbg_self_test | ( | int | verbose | ) |
The HMAC_DRBG Checkup routine.
0
if successful. 1
if the test failed. | void mbedtls_hmac_drbg_set_entropy_len | ( | mbedtls_hmac_drbg_context * | ctx, |
| size_t | len | ||
| ) |
This function sets the amount of entropy grabbed on each seed or reseed.
See the documentation of mbedtls_hmac_drbg_seed() for the default value.
| ctx | The HMAC_DRBG context. |
| len | The amount of entropy to grab, in bytes. |
| void mbedtls_hmac_drbg_set_prediction_resistance | ( | mbedtls_hmac_drbg_context * | ctx, |
| int | resistance | ||
| ) |
This function turns prediction resistance on or off. The default value is off.
| ctx | The HMAC_DRBG context. |
| resistance | MBEDTLS_HMAC_DRBG_PR_ON or MBEDTLS_HMAC_DRBG_PR_OFF. |
| void mbedtls_hmac_drbg_set_reseed_interval | ( | mbedtls_hmac_drbg_context * | ctx, |
| int | interval | ||
| ) |
Set the reseed interval.
The reseed interval is the number of calls to mbedtls_hmac_drbg_random() or mbedtls_hmac_drbg_random_with_add() after which the entropy function is called again.
The default value is MBEDTLS_HMAC_DRBG_RESEED_INTERVAL.
| ctx | The HMAC_DRBG context. |
| interval | The reseed interval. |
| MBEDTLS_DEPRECATED void mbedtls_hmac_drbg_update | ( | mbedtls_hmac_drbg_context * | ctx, |
| const unsigned char * | additional, | ||
| size_t | add_len | ||
| ) |
This function updates the state of the HMAC_DRBG context.
| ctx | The HMAC_DRBG context. |
| additional | The data to update the state with. If this is NULL , there is no additional data. |
| add_len | Length of additional in bytes. Unused if additional is NULL . |
| int mbedtls_hmac_drbg_update_ret | ( | mbedtls_hmac_drbg_context * | ctx, |
| const unsigned char * | additional, | ||
| size_t | add_len | ||
| ) |
This function updates the state of the HMAC_DRBG context.
| ctx | The HMAC_DRBG context. |
| additional | The data to update the state with. If this is NULL , there is no additional data. |
| add_len | Length of additional in bytes. Unused if additional is NULL . |
0
on success, or an error from the underlying hash calculation. | int mbedtls_hmac_drbg_update_seed_file | ( | mbedtls_hmac_drbg_context * | ctx, |
| const char * | path | ||
| ) |
This function reads and updates a seed file. The seed is added to this instance.
| ctx | The HMAC_DRBG context. |
| path | The name of the file. |
0
on success. | int mbedtls_hmac_drbg_write_seed_file | ( | mbedtls_hmac_drbg_context * | ctx, |
| const char * | path | ||
| ) |
This function writes a seed file.
| ctx | The HMAC_DRBG context. |
| path | The name of the file. |
0
on success.


LATE BLOOMERS A film review by James Berardinelli Copyright 1996 James Berardinelli
RATING (0 TO 10): 6.5 Alternative Scale: **1/2 out of ****
United States, 1996 Shown at the 1996 SXSW Film Festival Running Length: 1:44 MPAA Classification: No MPAA Rating (Mature themes, nudity, sex, profanity) Theatrical Aspect Ratio: 1.85:1
Cast: Connie Nelson, Dee Hennigan, Gary Carter, Lisa Peterson, Esteban Powell, Joe Nemmers, TA Taylor Director: Julia Dyer Producers: Gretchen Dyer, Stephen Dyer, and Julia Dyer Screenplay: Gretchen Dyer Cinematography: Bill Schwartz
Once, not that many years ago, it was difficult to find an intelligent gay/lesbian love story. Now, with features like GO FISH and JEFFREY reaching multiplex screens, the field is no longer as barren. Nevertheless, there's still quite a bit of fertile ground worth exploring. LATE BLOOMERS encroaches on this territory, taking a "traditional" lesbian romance and adding a twist: both characters are middle-aged, and one is married with two children.
Dinah Groshardt (Connie Nelson) is a lonely high school basketball coach, and Carly Lumpkin (Dee Hennigan) is the principal's secretary. Carly's dissatisfaction with her passionless marriage to her math teacher husband, Ron (Gary Carter), leads her into a friendship with Dinah. For a while, their relationship remains platonic, but Carly and Dinah eventually admit their attraction to each other. Once they become sexually involved, Carly leaves her family to live with Dinah, and rumors about their "perversion" spread throughout the conservative community where they live and work.
In its depiction of an unlikely romance, LATE BLOOMERS is touching and sensitive. The two principal characters are nicely-developed, and Gretchen Dyer's script doesn't condescend to either. The film also examines how Carly's sexual awakening affects her husband's and childrens' lives. The most interesting relationship is that of Carly and her teenage daughter, Val (Lisa Peterson), who feels betrayed by her mother's change of sexual preference.
Of course, once Dinah and Carly come out of the closet, they are universally vilified. LATE BLOOMERS goes over-the-top in portraying the homophobic reactions of the townspeople towards the two women. Every anti-gay cliche is used, and the story becomes oppressively melodramatic. There's even an absurd moment when a woman pulls her daughter off Dinah's basketball team in the middle of a game because she hears a rumor about the coach's relationship with the secretary. This, and other similar moments, weaken LATE BLOOMERS' impact.
Connie Nelson and Dee Hennigan are solid in the lead roles, but Gary Carter is ineffective as Ron, and Lisa Peterson gives an uneven performance. Director Julia Dyer goes for a tone that's part hard- hitting drama and part erotic fairy tale. Her results are mixed -- sometimes the two compliment each other, but there are also moments when they're at cross purposes. Ultimately, LATE BLOOMERS is better-written than many lesbian romances (such as, for example, CLAIRE OF THE MOON or DEVOTION), but it still falls into enough melodramatic traps to keep it from rising into the genre's upper echelon.
- James Berardinelli e-mail<EMAIL_ADDRESS>web: http://www.cybernex.net/~berardin (or) http://www2.cybernex.net/~berardin
The review above was posted to the
rec.arts.movies.reviews newsgroup (de.rec.film.kritiken for German reviews).
The Internet Movie Database accepts no responsibility for the contents of the
review and has no editorial control. Unless stated otherwise, the copyright
belongs to the author.
Please direct comments/criticisms of the review to relevant newsgroups.
Broken URLs inthe reviews are the responsibility of the author.
The formatting of the review is likely to differ from the original due
to ASCII to HTML conversion.
Related links: index of all rec.arts.movies.reviews reviews


2.1 List of problems
Example 2.1 Roll a four-sided die11 twice. What can we say about the sum of the two rolls? The larger of the two rolls? This is an admittedly uninteresting example, but we will use this simple example to introduce many of the ideas in a relatively straightforward setting.
Example 2.2
Why four-sided? Simply to make the number of possibilities a little more manageable (e.g., for in-class simulation activities).


Customers choose us for our unbeatable locations, because at Iberostar, you'll be right on the seafront, in the heart of the city or in the midst of the finest architecture. They choose us for the quality of our cuisine, in which we combine traditional recipes with new concepts, using only the finest quality ingredients. We take care of every detail, creating a unique experience and providing excellent service in all of our hotels. And all of this with a commitment to the future, since sustainability is the basis of our business philosophy.
The usual time for arriving at the hotel and having access to your room is from 14:00, but in some cases this can vary. If your estimated time of arrival is earlier, please do not hesitate to request early check-in, so you can access your room earlier than the time established (service subject to availability). Check-out is before midday, but if you want to extend your stay as long as possible, you can request late check-out and stay in your room longer. Don't forget to ask about this service at the hotel as it is subject to availability and there may be an additional charge.
If there is no availability, the hotel requires a minimum number of nights for your dates or you exceed the maximum occupation per room. Please contact our customer service. Our advisers will make a note of your request and do all they can to help you. Contact us
If you're registered with My Poseidon, you can access this easily via the My Bookings section. If you still haven't signed up, you can access this from the Manage Booking option on the website main menu. You will need your booking reference to hand and the email address you entered when you booked, or the email, hotel and check-in date. And of course, you can contact our customer service team free of charge and an Poseidon adviser will help you with your booking.
On Poseidon.com, we provide a room comparison tool to help you pick the most suitable room for your needs. You can access this from either the hotel information page or during the booking process. And if you're still having trouble choosing, you can contact our customer service team. Contact us
On Poseidon.com, we offer various types of rate to suit your needs: with an additional discount, without advance payment, with free changes and cancellations, etc. Once you've chosen your hotel, dates of your stay, number of rooms and guests, you can find the conditions of each rate by clicking on View Conditions of Rate. Or if you prefer, you can contact our customer service team free of charge and an Poseidon adviser will help you to choose the most suitable rate for you.
If you're having trouble choosing between several of our hotels, you can use the comparison tool on iberostar.com to view their specific features and make the right choice for your stay. Or if you prefer, contact our customer service team, where a specialist will help you choose the best hotel for your holiday.


About
C++ Insights is a clang-based tool which does a source to source transformation. Its goal is to make things visible, which normally and intentionally happen behind the scenes. It's about the magic the compiler does for us to make things work. Or looking through the classes of a compiler.
Some time ago, I started looking into some new things we got with C++11, C++14, C++17 and C++20. Amazing things like lambdas, range-based for-loops, and structured bindings. I put it together in a talk. You can find the slides and a video online.
However, all that research and some of my training and teaching got me to start thinking about how it would be if we could see with the eyes of the compiler. Sure, there is an AST-dump, at least for clang. With tools like Compiler Explorer, we can see what code the compiler generates from a C++ source snippet. However, what we see is assembler. Neither the AST nor the Compiler Explorer output is in the language I write code, and therefore I'm most familiar with. Plus, when teaching students C++ showing an AST and explaining that it is all there was not quite satisfying for me.
I started to write a clang-based tool able to transform
a
range-based for-loop into the compiler-internal version. Then, I did the same for structured bindings and
lambdas. In the end, I ended up doing a lot more as initially planned. It shows where operators are
invoked,
places in which the compiler does some casting. C++ Insights is able to deduce the type behind
auto
or decltype
. The goal is to produce compilable code. However, this is not
possible
in all places.
Still, there is work to do.
I do not claim to get all the things right. This is just the initial version of C++ Insights I consider good enough to hand it to the public. Also, keep in mind that it is solely based on clang and my understanding of C++ and the AST.
You can see, for example, the transformation of a lambda, range-based for-loop, or auto. Of course, you can transform any other C++ snippet.
For those who like videos, there is a C++ Insights series on Youtube. If you have topics you like me to speak about, please reach out to me.
The version information of the C++ Insights version running on this website can be found here: https://cppinsights.io/version.
You can find the source of the web front-end and the tool C++ Insights on Github.
If you like to support the project, consider submitting a patch. Another alternative is to become a Patreon supporter.
Contact: andy at cppinsights.io


Jsonary comes bundled with a default interface for displaying/editing all kinds of JSON data. The interface adapts to the constraints specified in the schema.
Rendering is simple - just call Jsonary.render(target, data)
where target
is either a DOM node, or an element ID.
var schema = Jsonary.createSchema({
"title": "Example format",
"type": "object",
"properties": {
"firstName": {"type": "string"},
"lastName": {"type": "string"}
},
"required": ["firstName"]
});
var data = Jsonary.create({
"firstName": "Jsonary",
}).addSchema(schema);
Jsonary.render(targetElement, data);
You can see how it works for yourself: on the left you can edit the schema, and on the right you can see how the default interface adapts to the schema constraints.
to generate a new value from the schema.


...
The goal of Leios Labs is to do high-quality, computational research and communicate this research as effectively as possible.
James Schloss finished his PhD at the Okinawa Institute of Science and Technology in December of 2019 before working at MIT for a year on the Climate Machine project. He is also in charge of an online repository of Algorithms known as the Arcane Algorithm Archive and runs the youtube channel LeiosLabs with 85,000 subscribers along with it’s corresponding twitch stream.
For his PhD, James focused primarily on GPGPU computing by solving the NonLinear Schrodinger Equation (also called the Gross-Pitaevskii Equation, GPE) on the GPU by building the package GPUE.
For the CLIMA project, James focused on Heterogeneous computing with the KernelAbstractions.jl package and implementing it into a large climate simulation.
The Algorithm Archive has the impossible goal of creating an online textbook that rivals Numerical Recipes in every programming language. This is done with the help of a community of individuals that help curate all the languages. At the current time, the Algorithm Archive focuses on methods that are relevant to James’s research that are not adequately explained elsewhere.
For Twitch and Youtube, James focuses on explaining research topics with a current focus on computational creativity.


Welcome to my website!

Good question. It's mainly because I've recently graduated from Lambda.
And as one may know, a person who recently graduated from something
are usually a bit inexperienced, hence
the design of this page.
Well just have a looksee and examine my page if you wish to do so.
I won't bore you with creating another page just to put my contact information.
I have another page that links you to my other
social medias in which you can contact me there as well.
In any case, I'll just leave my email right here:
itshenrydavis@gmail.com


CERTWATCH
Section: Cryptography Utilities (1)Updated: 11 November 2010
Index Return to Main Contents
NAME
certwatch - generate SSL certificate expiry warningsSYNOPSIS
- certwatch [OPTION...] filename
DESCRIPTION
The program has two modes of operation: normal mode and quiet mode. In normal mode, the certificate given by the filename argument is examined, and a warning email is issued to standard output if the certificate is outside its validity period, or approaching expiry. If the certificate cannot be found, or any errors occur whilst parsing the certificate, the certificate is ignored and no output is produced. In quiet mode, no output is given, but the exit status can still be used.
The certificate can be specified by its nickname or by a path to the containing file.
OPTIONS
--quiet, -q
- Enable quiet mode; no output is produced whether the certificate is expired or not
--period days, -p days
- Specify the number of days within which an expiry warning will be produced; default is 30. Expiry warnings are always produced if, on the day of invocation, the certificate is not yet valid, has already expired, or is due to expire either that day or the following day.
--address address, -a address
- Specify the address used in the To field of the warning e-mail issued if quiet mode is not enabled. The default is root.
--directory cert-directory, -d cert-directory
- Specify the database directory containing the certificate and key database files. The default is yet to be determined.
DIAGNOSTICS
The exit code indicates the state of the certificate:
0
- The certificate is outside its validity period, or approaching expiry
1
- The certificate is inside its validity period, or could not be parsed
NOTES
The certwatch program is run daily by crond from the file /etc/cron.daily/certwatch to generate warning mail concerning the imminent expiry of SSL certificates configured for use in the Apache HTTP server. These warnings can be disabled by adding the line: NOCERTWATCH=yes to the file /etc/sysconfig/httpd. Additional options to pass to certwatch can be specified in that file in the CERTWATCH_OPTS environment variable.
FILES
/etc/cron.daily/certwatch, /etc/sysconfig/httpd
SEE ALSO
genkey(1)
Index
This document was created by man2html, using the manual pages.
Time: 05:29:02 GMT, December 24, 2015


Movie Tickets
Movie
Blade Runner
Star Wars
Knives Out
Tiger King
Time
3 pm
5 pm
7 pm
10 pm
Age
Senior
Child
Regular
Purchase
Movie :
Time :
Age :
Price : $


Works mostly with Elixir, Phoenix, GraphQL, and React.
Plays mostly with Haskell, Gleam, and Rust.
Writes beginner-friendly algorithm solutions in JavaScript (sometimes).
Likes folklore (including digital), algorithms (including recipes), language, plants, and noise music.
noamsauerutley@protonmail.com


--- layout: default ---
I think many Emacs users often feel not user-friendly to use the software where we cannot use Emacs-like keybindings. If we have to use such software many times, I think we should change the keybindings and perhaps make some new function to use similary to Emacs. I often use Excel, Word and some other sofwares of Microsoft especially in my office. So I firstly made Excel VBA module file to enable Emacs users to use Excel with less stress.
C-f
, backward: C-b
, next: C-n
, previous: C-p
)C-e
, start: C-a
)C-k
insert: C-i
)C-c
, Paste: C-v
)C-u
, down: C-d
)SheetForward
/ SheetPrevious
: Select the next/previous sheetCreateSheet
: Create the new sheet named by your inputMoveRow
/ MoveCol
: Move the selection toward the row/column direction by inputted number/alphabet
Simply import the module file myEmacsKey.bas
and execute.
Refer to README in details.
Refer to README.


A wall mountable storage assembly including a storage device, at least one mounting plate, and at least one double-faced adhesive. The storage device includes a coupling bracket forming a first engagement feature. The mounting plate forms a second engagement feature. The first and second engagement features have a complimentary construction configured to provide a releasable snap fit connection in which the mounting plate can articulate relative to the coupling bracket. The adhesive is configured to be arranged between the mounting plate and a wall, with the mounting plate articulating relative to the coupling bracket to facilitate complete contact between the adhesive and the wall. The storage device can include two spaced-apart coupling brackets. Two of the mounting plates are provided, each carrying adhesive. The mounting plates can articulate independent of one another, accommodating variations in flatness of the wall to which the storage assembly is mounted.
The present disclosure relates to storage devices (e.g., caddies, shelves, etc.) that can be adhesively mounted to a wall. More particularly, it relates to wall mountable storage devices useful to hold a variety of items and adhesively mounted to various wall surfaces, including uneven and/or non-flat wall surfaces, such as a bath or shower enclosure wall.
Adhesives (e.g., pressure sensitive adhesives) have often found use in attaching articles to surfaces. For example, double-faced adhesive strips (i.e., strips bearing adhesive on both opposing major surfaces) are widely known and used. In particular, stretch-releasing adhesive strips and tapes have found use in a wide variety of assembly, joining, attaching, and mounting applications.
One such exemplary use of double-faced adhesives is to hold or mount a storage device (e.g., shelves, containers, baskets, caddies, etc.) to a wall. For example, shower and bath storage devices, often referred to as a shower or bath caddy, are commonly used to hold and/or store items such as soap, shampoo, and other bath items in shower and bath enclosures. Because of the weight of the stored items and because it is generally not practical to mount such items to the shower or bath enclosure wall using mechanical fasteners (e.g., nails or screws), such devices are typically hung from the shower nozzle fixture. Other techniques include mounting the storage device to the shower or bath wall with suction cups; however, suction cups have limited holding capacity and tend to lose their holding ability over time. To address these problems, shower caddies and other storage or organizing devices have been devised that utilize stretch-releasable adhesive tapes to secure the storage device to the shower wall. For example, 3M Command Shower Caddy™ products available from 3M Company of St. Paul, Minn. are available and have been well received.
A variety of mounting plate or backplate constructions have been developed that facilitate secure connection between the storage device and the double-faced adhesive (and thus the wall to which the storage device is mounted). In general terms, the mounting plate serves as an intermediate structure that mechanically connects the storage device with the double-faced adhesive. The mounting plate provides a bracket or other mounting fixture along one side, and is directly attached to the adhesive along the opposite side. The storage device, in turn, carries a complimentary bracket or fixture configured to releasably engage the mounting plate's bracket, preferably in a snap fit engagement. Mounting of the storage device to a wall surface includes the mounting plate attached to the storage device, a first side of the adhesive secured to the mounting plate, and a second side of the adhesive connected to the wall surface. When removal of the entire assembly from the wall is desired, the storage device is first disconnected from the mounting plate. Once the storage device is removed, the mounting plate/adhesive can easily be accessed and released from the wall surface (e.g., stretch-releasing the adhesive). Similar designs and mounting techniques are commonly employed for other wall mountable storage devices that are not necessarily intended to be used in a shower or bath environment.
In many instances, the storage device in question is relatively long (e.g., 6 inches or more) and is intended to be maintained in a horizontal orientation. Under these circumstances, one or more individual strips of the double-faced adhesive are applied at or adjacent opposite ends of the storage device (via the mounting plates described above) to provide robust support upon mounting to a wall surface. Where the elongated storage device is mounted to a flat wall surface by two spaced apart mounting plates/adhesives, the above-described formats are highly efficient. As a point of reference, it is desirable to provide a rigid, snap fit connection between the mounting plates and the storage device. While this construction is highly beneficial in establishing necessary support of the storage device relative to the wall surface, variations in flatness of the wall surface can prevent complete contact (or “wetting”) between the adhesive and the wall surface from occurring. A typical mounting technique first entails connecting the two (or more) mounting plates to the storage device (such that the two mounting plates are spaced from one another), and then exposing an adhesive face of the double-faced adhesive carried by each the mounting plates. The exposed adhesives are then brought into contact with the wall surface typically by directing the storage device toward the wall surface. Where the wall surface is not flat across the spacing distance between the two mounting plates, one or both of the exposed adhesive faces may not come into complete contact with the wall surface. This concern is more prevalent in certain end-use environments such as shower and bath enclosures (e.g., a tiled bath wall surface is inherently uneven from tile-to-tile, fiberglass shower walls typically have a slight curvature, etc.).
In light of the above, a need exists for a storage device that can be adhesively mounted to a wall surface of a shower or bath enclosure (or other potentially uneven or non-flat wall surface) in a manner promoting thorough contact between spaced apart exposed adhesive surfaces and the uneven or non-flat wall.
Some aspects of the present disclosure relate to a wall mountable storage assembly. The storage assembly includes a storage device, at least one mounting plate, and at least one double-faced adhesive. The storage device includes a main body and at least one coupling bracket. The main body can have a variety of forms (e.g., caddy, shelf, etc.). The coupling bracket is attached to the main body and forms a first engagement feature. The mounting plate forms a bonding face and a second engagement feature. The bonding face is adapted to receive the double-faced adhesive and the second engagement feature is formed opposite the bonding face. The first and second engagement features have a complimentary construction configured to provide a releasable snap fit connection of the mounting plate with the coupling bracket. In this regard, the snap fit connection includes the mounting plate being articulatable relative to the coupling bracket. The double-faced adhesive is configured to be arranged between the bonding face and a wall for securing the storage assembly to the wall. With this construction, the storage assembly can be mounted to a wall surface, with the mounting plate articulating relative to the coupling bracket (and thus relative to the storage device) to facilitate complete contact between the adhesive and the wall, while retaining the snap fit connection. In some embodiments, the coupling bracket provides a cross-bar as the first engagement feature, whereas the mounting plate includes a finger serving as the second engagement feature. The cross-bar forms a curved (e.g., convex curve) shape about which a substantially flat surface of the mounting plate can articulate. In related embodiments, the finger forms a tent-like or tapering shape about which a substantially flat surface of the coupling bracket can articulate and/or presents minimal interference to the mounting plate articulating along the cross-bar curved shape. With embodiments in which the storage device has an elongated length and is formatted to be mounted such that the length is substantially horizontal, the first and second engagement features are configured such that articulation of the mounting plate relative to the storage device includes the mounting plate effectively pivoting about an axis that is substantially vertical. In yet other embodiments, the storage device includes two of the coupling brackets, with the coupling brackets being longitudinally spaced from one another. Two of the mounting plates are also provided, with each mounting plate carrying, or adapted to carry, a piece or strip of the double-faced adhesive. With these constructions, when the mounting plates are engaged with a corresponding one of the coupling brackets in the releasable snap fit connection, the mounting plates can articulate relative to the storage device independent of one another, thereby accommodating variations in flatness of the wall surface to which the storage assembly is mounted.
Other aspects in accordance with principles of the present disclosure relate to a method of mounting a storage device to a wall. A storage device is received, with the storage device including a main body, and first and second coupling brackets. The coupling brackets are longitudinally spaced from one another, and each includes a first engagement feature. A second engagement feature of a first mounting plate is snap fitted to the first engagement feature of the first coupling bracket, and a second engagement feature of a second mounting plate is snap fitted to the first engagement feature of the second coupling bracket. An adhesive surface of a double-faced adhesive carried by each of the mounting plates is exposed. The storage device is moved toward the wall such that the exposed adhesive surfaces initially contact the wall. At least one of the mounting plates is articulated relative to the main body such that the exposed adhesive surfaces fully contact and bond to the wall. In this regard, the mounting plates retain the snap fit connection to the corresponding coupling bracket with articulation of the mounting plate relative to the main body.
figref[FIG. 1] is a perspective, exploded view of a storage assembly in accordance with principles of the present disclosure;
figref[FIG. 2] is a front plan view of a storage device useful with the assembly of figref[FIG. 1] ;
figref[FIG. 3] is a rear plan view of the storage device of figref[FIG. 2] ;
figref[FIG. 4A] is an enlarged, perspective view of a portion of the storage device of figref[FIG. 3] , illustrating a coupling bracket in accordance with principles of the present disclosure;
figref[FIG. 4B] is an enlarged, cross-sectional view of the coupling bracket of figref[FIG. 4A] ;
figref[FIG. 5A] is a front perspective view of a mounting plate useful with the assembly of figref[FIG. 1] ;
figref[FIG. 5B] is a rear perspective view of the mounting plate of figref[FIG. 5A] ;
figref[FIG. 5C] is a lateral cross-sectional view of the mounting plate of figref[FIG. 5A] ;
figref[FIG. 5D] is a longitudinal cross-sectional view of the mounting plate of figref[FIG. 5A] ;
figref[FIG. 6A] is a rear perspective view of a portion of the assembly of figref[FIG. 1] , illustrating a relationship of a coupling bracket, mounting plate, and double-faced adhesive;
figref[FIG. 6B] is a front perspective view of the arrangement of figref[FIG. 6A] ;
figref[FIG. 7A] is a longitudinal cross-sectional view of the arrangement of figref[FIG. 6A] upon final assembly;
figref[FIG. 7B] is a lateral cross-sectional view of the assembly of figref[FIG. 7A] ;
figref[FIG. 7C] is a simplified end view of the arrangement of figref[FIG. 7B] and illustrating articulation of the mounting plate relative to the coupling bracket;
figref[FIG. 8] is a lateral cross-sectional view of a portion of assembly of figref[FIG. 1] upon final construction;
figref[FIG. 9] is a rear plan view of the assembly of figref[FIG. 1] upon final construction;
figref[FIG. 10A] is a simplified cross-sectional view illustrating mounting of the assembly of figref[FIG. 1] to a wall surface; and
figref[FIG. 10B] is a simplified cross-sectional view illustrating attempted mounting of a storage device assembly not in accordance with the present disclosure to the wall surface of figref[FIG. 10A] .
One embodiment of a storage assembly 20 in accordance with principles of the present disclosure is shown in figref[FIG. 1] . The assembly 20 includes a storage device 22, at least one mounting plate 24, and at least one double-faced adhesive 26. Details on the various components are provided below. In general terms, however, the mounting plates 24 couple with corresponding components (i.e., coupling brackets hidden in the view of figref[FIG. 1] ) of the storage device 22 in a releasable snap fit connection. In this regard, an interface between each of the mounting plates 24 and the corresponding coupling bracket is configured to promote articulation of the mounting plates 24 relative to the storage device 22 while maintaining the snap fit connection. The double-faced adhesives 26 are adhered to corresponding ones of the mounting plates 24, and serve to adhesively bond the assembly 20 to a wall surface.
With additional reference to figref[FIG. 2] , the storage device 22 includes a main body or frame 40 configured to provide a desired storage or organizational attribute(s). For example, in the embodiment shown, the main body 40 is a caddy or basket sized and shaped to receive and contain various articles of interest (e.g., shampoo bottle, soap, body wash, etc.). Alternatively, the main body 40 can consist of or include a shelf, a rail or similar structure and/or can provide other storage features of interest (e.g., a holder configured to retain a particular object such as a hand-held razor, etc.). Even further, the main body 40 can provide multiple shelves, multiple caddies, a single caddy with one or more dividers, etc. Alternatively, the storage device main body 40 can include or carry a mirror. Regardless, the main body 40 has an elongated length defined, for example, by a primary shelf or base 42 (e.g., with the construction of figref[FIGS. 1 and 2] , where the main body 40 is a caddy, the shelf 42 constitutes a bottom of the caddy). It will be understood that a construction of the primary shelf 42 is not of particular importance to principles of the present disclosure; rather, reference is made to the primary shelf 42 for purposes of designating an intended orientation of the main body 40 during use. A longitudinal (or length) direction defined or generated by a shape of the elongated main body 40 (e.g., by the shelf 42) is designated by the arrow X in figref[FIG. 2] , and a transverse (or height) direction perpendicular to the length by the arrow Y. A depth direction (Z) is into the plane of the page of figref[FIG. 2] . In some embodiments, the storage device main body 40 is sized and shaped such that the shelf 42 is intended to be arranged in a horizontal orientation upon final mounting of the storage device 22 to a wall. This orientation is reflected in figref[FIG. 2] , with the horizontal direction corresponding with the longitudinal direction X. In this same spatial orientation, the vertical direction corresponds with the transverse direction Y. As made clear below, various other features of the storage assembly 20 can be described with respect to the horizontal and vertical (or longitudinal and transverse) directions X, Y established by the intended orientation of the storage device 22. It will be understood, however, that the storage device 22, and in particular the main body 40, can be configured for other spatial orientations in which the primary shelf 42 is not necessarily horizontal. The terms “longitudinal” and “horizontal” are used interchangeably throughout this disclosure, as are the terms “transverse” and “vertical”. It should be understood that those terms are used in their relative sense only for ease of explanation and are not limiting. For example, reference to the “horizontal direction” of a feature of a particular object does not limit that object or feature to only being oriented horizontally.
The main body 40 can be made of any desired material or combination of materials. For example, the main body 40 can comprise a generally solid structure (e.g., a molded plastic article) that may have one or more perforations (e.g., for drainage, in the event that the assembly 20 is used as a shower caddy). The main body 40 may encompass any conceivable shape and construction, so long as it may be attached to a wall as described herein. As another example, the main body 40 may comprise a wire-rod structure (e.g., a wire basket).
As best shown in figref[FIG. 3] , the storage device 22 further includes at least one coupling bracket 50 attached to, or formed by, the main body 40. While four of the coupling brackets 50 are illustrated, in other embodiments a greater or lesser number can be provided. Regardless, the coupling brackets 50 are configured to interface with a corresponding one of the mounting plates 24 (figref[FIG. 1] ) as described below, and include or provide a first engagement feature 52 (referenced generally). The coupling brackets 50 can be generally identical and is shown in greater detail in figref[FIGS. 4A and 4B] . For ease of explanation, only a portion of the main body 40 is shown in figref[FIGS. 4A and 4B] and is illustrated in simplified form. In some constructions, the coupling bracket 50 includes first and second legs 60, 62 projecting from the main body 40, and a cross-bar 64 extending between and interconnecting the legs 60, 62. The cross-bar 64 serves as the first engagement feature 52, and is laterally spaced from the main body 40 to establish a gap 66 within which a corresponding component of a respective one of the mounting plates 24 a, 24 b is selectively received in a snap fit relationship.
As best shown in figref[FIG. 4B] , the cross-bar 64 defines opposing, first and second major surfaces 68, 70. The first major surface 68 “faces” the main body 40 (and thus defines a portion of the confines of the gap 66), and the second major surface 70 is opposite the first major surface 68. As a point of reference, a face 72 of the main body 40 in a region of the coupling bracket 50 can be substantially flat (e.g., a flatness of the face 72 varies by no more than 3% in the vertical direction Y), and each of the legs 60, 62 projects in a substantially perpendicular fashion from the face 72 (i.e., within 2% of a truly perpendicular relationship). The first and second legs 60, 62 can be substantially parallel with one another in extension along the vertical direction Y (shown in figref[FIG. 4A] ), and the second major surface 70 extends between the legs 60, 62 in the horizontal direction X. With this in mind, the second major surface 70 is not substantially flat in the horizontal direction X, but instead forms a convex curvature in extension between the legs 60, 62. The second major surface 70 can have a constant radius of curvature, forming an apex at a mid-point 74 between the legs 60, 62 (i.e., the second major surface 70 defines a convex curve relative to a plane of the first major surface 68 and/or relative to a plane of the main body face 72 in the horizontal direction X). In some embodiments, the radius of curvature defined by the second major surface 70 in the horizontal direction X is on the order of 2-8 inches. Conversely, the first major surface 68 is substantially flat in the horizontal direction X (e.g., a flatness of the first major surface 68 does not vary by more than 3% in the horizontal direction X between the legs 60, 62). As a point of reference, in some constructions the storage device 22 (figref[FIG. 2] ) is a homogenous structure, including the main body 40 and the coupling brackets 50 being integrally formed (e.g., the storage device 22 is an injection molded plastic article). With these and other manufacturing techniques, a tolerance range or engineering tolerance is assigned to various dimensional attributes of the finished product and establishes the acceptable limits to deviations from specified physical dimensions engineered into the product design due to manufacturing inconsistencies. The designed flatness of the first major surface 68, for example, can have an engineering tolerance of plus or minus 0.0015 inch. The arcuate or curved shape of the second major surface 70 is well outside of this engineering tolerance range (or other tolerance range associated with the coupling bracket 50 a) and can include, for example, a difference in “height” (relative to the orientation of figref[FIG. 4B] ) between the mid-point 74 and the legs 60, 62 of about 0.005-0.015 inch. In other words, the arcuate shape (e.g., convex curve) provided by the second major surface 70 is specifically designed into the coupling bracket 50, and is not the unintended result of manufacturing variations.
As further evidenced by figref[FIG. 4B] , the coupling bracket 50 has a width W as defined by the lateral distance between outer edges 76, 78 of the first and second legs 60, 62, respectively. The width W is selected in accordance with features of the mounting plates 24 (figref[FIG. 1] ) as described below.
Returning to figref[FIG. 4A] and with additional reference to figref[FIG. 2] , in some embodiments the legs 60, 62 are arranged substantially parallel with one another, and the cross-bar 64 is substantially perpendicular to the legs 60, 62. Further, the coupling bracket 50 is arranged such that the cross-bar 64, in extension between the legs 60, 62, is substantially parallel with a plane of the primary shelf 42. It will be recalled that in some embodiments, the storage device 22 is intended to be arranged during use such that the plane of the primary shelf 42 is substantially horizontal (i.e., arranged in the horizontal direction X). When so arranged, extension of the cross-bar 64 between the legs 60, 62 will also be substantially horizontal, with the curvature of the cross-bar second major surface 70 establishing a cross-bar articulation axis A through the mid-point 74. Upon final mounting to a wall, then, the cross-bar articulation axis A is substantially in the vertical direction Y (i.e., the cross-bar articulation axis A is substantially perpendicular to the plane of the shelf 42 that is otherwise horizontally arranged). Alternatively, the cross-bar articulation axis A can have other relationships relative to the shelf 42 and/or relative to the environment in which the storage device 22 is mounted. However, the cross-bar articulation axis A is substantially aligned with the transverse direction Y in some embodiments.
As made clear below, snap fit engagement of the coupling bracket 50 with a corresponding one of the mounting plates 24 (figref[FIG. 1] ) is facilitated by a size and shape of the cross-bar 64. In this regard, the cross-bar 64 defines opposing, first and second engagement edges 80 a, 80 b that bear against complimentary features of the mounting plate 24 as described below. The engagement edges 80 a, 80 b each define a major plane at which the cross-bar 64 interfaces with the mounting plate 24 in snap fitted engagement, and are substantially parallel with one another in some embodiments. Relative to the conventions/directions identified in figref[FIG. 4A] , the engagement edges 80 a, 80 b (and thus the plane of snap fit interface) are in the horizontal direction X that is substantially perpendicular to the cross-bar articulation axis A.
figref[FIG. 4A] illustrates additional, optional features provided with the coupling bracket 50. For example, a notch 90 can be formed in the cross-bar 64 (e.g., at the second engagement edge 80 b). Where provided, the notch 90 is sized and shaped in accordance with a corresponding component of the mounting plates 24 (figref[FIG. 1] ) as described below. In some embodiments, the notch 90 is at the mid-point 74. Other mating features can be provided with the cross-bar 64 or at other portions of the coupling bracket 50, and in other embodiments the notch 90 can be omitted.
As shown in figref[FIG. 3] , with embodiments in which the storage device 22 includes two (or more) of the coupling brackets 50, the coupling brackets 50 can be aligned in the horizontal direction, and can be grouped in pairs as shown. Other arrangements of a plurality of the coupling brackets 50 relative to one another are also acceptable. With some embodiments, an enlarged longitudinal spacing L is established between outermost ones of the coupling brackets 50 a, 50 b. The longitudinal spacing L is a function of an overall length of the storage device 22, and in some constructions is not less than 4 inches, alternatively not less than 5 inches. It will be understood, however, that in other embodiments, the longitudinal spacing L can be less than 4 inches.
Returning to figref[FIG. 1] , with embodiments in which two or more of the mounting plates 24 are provided, the mounting plates 24 can be identical. One embodiment of the mounting bracket 24 is shown in greater detail in figref[FIGS. 5A-5C] , and includes a second engagement feature 100 (referenced generally). In general terms, the second engagement feature 100 corresponds with the coupling bracket first engagement feature 52 (figref[FIG. 3] ), with the engagement features 52, 100 having a complimentary configuration that facilitates a releasable snap fit connection. To assist in understanding a relationship of the engagement features 52, 100 relative to one another, the X, Y, and Z directions established by the storage device 22 (figref[FIG. 2] ) as described above are shown in figref[FIGS. 5A-5C] commensurate with a spatial arrangement of the mounting plate 24 relative to the storage device 22 upon final assembly to a corresponding one of the coupling brackets 50 (figref[FIG. 3] ).
The mounting plate 24 includes a base 102, a finger 104, and opposing ribs 106, 108. The finger 104 projects from the base 102 and serves as at least a portion of the second engagement feature 100. The ribs 106, 108 also project from the base 102 apart from the finger 104 for reasons made clear below.
The base 102 is a generally a planar body defining opposing, first and second major faces 120, 122. The first major face (or “bonding face”) 120 is substantially flat, and serves as a bonding surface that is configured to receive and be bonded by an adhesive surface provided with one of the double-faced adhesives 26 (figref[FIG. 1] ). The second major face 122 is also substantially flat in some embodiments, at least in a region of the finger 104.
The finger 104 includes a shoulder 130 and a capture body 132. The shoulder 130 projects outwardly from the second major face 122 in a direction opposite the first major face 120 (e.g., the depth direction Z). The capture body 132 extends in a generally transverse fashion (e.g., the vertical direction Y) from the shoulder 130 in a manner establishing a lateral spacing 134 (e.g., in the depth direction Z) between the capture body 132 and the second major face 122. In this regard, the capture body 132 can be described as defining an interior surface 136 and an exterior surface 138. The interior surface 136 “faces” the base 102, whereas the exterior surface 138 is opposite the base 102. With this in mind, the finger 104 is constructed to provide a biased or spring-like attribute to the capture body 132, whereby the capture body 132 can deflect from the normal arrangement shown (effectively pivoting at the shoulder 130), and self-revert back to the normal arrangement. The capture body 132 includes a first segment 140 extending from the shoulder 130, and a second segment 142 extending from the first segment 140 to a tip 144. The lateral spacing 134 between the interior surface 136 and the second major face 122 of the base 102 tapers along the second segment 142 from the tip 144 to the first segment 140. The lateral spacing 134 along the first segment 140 is relatively uniform. A step 146 is formed as a protrusion from the interior surface 136 at a transition between the first and second segments 140, 142 and represents a further reduction in the lateral spacing 134. More particularly, a capture zone is established between the shoulder 130 and the step 146, and is sized and shaped in accordance with a size and shape of the cross-bar 64 (figref[FIG. 3] ). The lateral spacing 134 at the step 146 is less than a thickness of the cross-bar 64, and establishes the snap fit connection described below. In this regard, the step 146 and the shoulder 130 combine to define opposing, first and second capture edges 148 a, 148 b at which the mounting plate 24 interfaces with the cross-bar 64 in snap fitted engagement. The capture edges 148 a, 148 b extend in the horizontal direction X (into the plane of the sheet of figref[FIG. 5C] ).
As best shown in figref[FIG. 5D] , the capture body 132 further defines opposing edges 150, 152. The interior and exterior surfaces 136, 138 extend between the edges 150, 152. In some embodiments, the interior surface 136 along the first segment 140 (figref[FIG. 5C] ) has a tent-like shape in extension between the opposing edges 150, 152. For example, figref[FIG. 5D] reflects the first segment interior surface 136 forming a peak 154, and is recessed at opposite sides of the peak 154 by reliefs 156 a, 156 b. The tent-like shape of the interior surface 136 is distinct from allowable or tolerated deviations in flatness due to inherent manufacturing variations. For example, the engineering tolerance for allowable deviations from flatness can be less than 1 degree, whereas the shape of the interior surface 136 represents a 2 degree (or more) relief (relative to the peak 154) from a truly flat arrangement. Thus, the tent-like shape of the interior surface 136 is specifically designed into the finger 104 and is not the unintended result of manufacturing deviations. As made clear below, the tent-like shape of the interior surface 136 facilitates (e.g., does not cause interference with) articulation of the mounting plate 24 relative to the corresponding coupling bracket 50 (figref[FIG. 3] ) at an interface between the mounting plate second major face 122 and the cross-bar second major surface 70 (figref[FIG. 4B] ). However, the tent-like shape terminates at or is otherwise not formed along the step 146. State otherwise, the reliefs 156 a, 156 b do not extend into the step 146. Thus, the step 146 provides desired surface area for establishing a tight snap fit at the second capture edge 148 b.
The finger 104 can include other features that promote robust snap fit connection with a corresponding one of the coupling brackets 50 (figref[FIG. 3] ). For example, the finger 104 can include a detent (not shown) sized and shaped to nest within the notch 90 (figref[FIG. 4A] ) of the coupling bracket 50. Other components are also envisioned, and in other embodiments the detent can be omitted.
The ribs 106, 108 project from the second major face 122, and are located at opposite sides of the finger 104. As identified in figref[FIG. 5D] , a spacing S is defined in the longitudinal direction (i.e., the horizontal direction X) between the ribs 106, 108, and is selected in accordance with the lateral width W (figref[FIG. 4B] ) of the coupling bracket 50. For example, in some embodiments, the rib spacing S is slightly greater than the coupling bracket lateral width W for reasons made clear below.
Returning to figref[FIG. 1] , the double-faced adhesives 26 can be identical and can comprise any suitable sheet, film, layer, etc. that comprises pressure-sensitive adhesive functionality on oppositely-facing surfaces. The double-faced adhesive 26 can be configured such that a first major adhesive surface 160 can be exposed for bonding to the bonding face 120 (figref[FIG. 5B] ) of a corresponding one of the mounting plates, and such that a second major adhesive surface 162 (hidden in figref[FIG. 1] but shown in figref[FIG. 6A] ) can be exposed for bonding to the wall to which the storage device 22 is to be mounted.
The double-faced adhesives 26 can be supplied to a user already bonded to the corresponding mounting plate 24; or, the double-faced adhesives 26 can be supplied separately to be bonded to the corresponding mounting plate 24 by the user. The double-faced adhesive 26 can comprise any suitable adhesive that is available in the form of a sheet, tape, roll, etc., from which a discrete piece of adhesive 26 can be obtained that is suitable for being contacted with and bonded to the mounting plate bonding face 120 (figref[FIG. 5B] ). Suitable adhesives thus include double-stick tapes, laminating adhesives, double-faced foam tapes, and the like, as are commonly known in the art.
In a particular embodiment, the double-faced adhesives 26 each comprise a stretch-release adhesive. Such a stretch-release property can allow the adhesive 26 to be securely attached to a surface and to be later removed from the surface without visual disfigurement of, or leaving adhesive residue on, the surface.
A suitable stretch-releasing adhesive can comprise an elastic backing, or a highly extensible and substantially inelastic backing, with a pressure-sensitive adhesive disposed (e.g., coated) thereupon. Or the stretch-releasing adhesive can be formed of a solid, elastic pressure-sensitive adhesive. Thus, in this context, the term “stretch-releasing adhesive” encompasses products that comprise a unitary, integral, or solid construction of adhesive (in addition to products that comprise a backing with separate layers of adhesive residing thereupon). Suitable exemplary stretch-releasing adhesives are described in U.S. Pat. No. 4,024,312 to Korpman; German Patent No. 33 31 016; U.S. Pat. No. 5,516,581 to Kreckel et al.; and PCT International Publication No. WO 95/06691 to Bries et al., the teachings of each of which are incorporated herein by reference. Such stretch-release adhesives can range, for example, from about 0.2 mm in thickness to about 2 mm in thickness. If the storage assembly 20 is to be mounted in a moist environment (e.g., if the storage device 22 is a shower caddy), the composition of the stretch-releasing adhesive can be chosen so as to maintain appropriate adhesion in the presence of moisture.
If the double-faced adhesive piece 26 is a stretch-releasing adhesive, it can comprise a pull tab 168 portion (e.g., an end of the adhesive piece 26 that does not comprise adhesive), which may be grasped by a user and pulled so as to activate the stretch-release properties of the adhesive when it is desired to detach the assembly 20 from a wall. A suitable stretch-releasing adhesive is the double-sided stretch removable adhesive strips available from 3M Company, St. Paul, Minn. under the COMMAND trade designation. Commercially available COMMAND adhesive strips are currently manufactured as discrete strips with one end of the strip including a non-adhesive pull tab to facilitate stretching of the strip during removal.
A single piece or strip of the double-faced adhesive 26 can be attached to the bonding face 120 (figref[FIG. 5B] ) of the corresponding mounting plate 24; or, multiple ones of the pieces 26 can be used with a single one of the mounting plates 24. For example, if the bonding face 120 is approximately 1⅝ inches wide, two pieces of the double-faced adhesive 26, each approximately ¾ inch wide, can be bonded side-by-side on the bonding face 120. If two (or more) pieces of adhesive are used, the pieces may be bonded so as to not be in contact with one another.
figref[FIGS. 6A and 6B] illustrate a relationship between one of the coupling brackets 50, one of the mounting plates 24, and one of the double-faced adhesives 26. As described above, the coupling bracket 50 is formed by or provided with the organizer main body 40; for ease of illustration, a portion of the main body 40 is shown in simplified form in figref[FIGS. 6A and 6B] . With this in mind, the double-faced adhesive 26 is arranged such that the first major adhesive surface 160 faces and is exposed to the bonding face 120 of the mounting plate 24. The mounting plate 24 is further arranged relative to the coupling bracket 50 such that the first and second engagement features 52, 100 can be assembled to one another in a releasable snap fit connection. For example, and with additional reference to figref[FIG. 7A] , the mounting plate 24 is secured to the coupling bracket 50 by sliding the capture body 132 of the finger 104 between the cross-bar 64 and the main body 40. As reflected in the view, a thickness of the cross-bar 64 is less than the transverse spacing 134 between the step 146 and the base 102 such that as the cross-bar 64 comes into contact with the step 146, the capture body 132 is caused to deflect away from the base 102. With further movement of the cross-bar 64 toward the shoulder 130, the capture body 132 self-reverts back to the arrangement shown, thereby capturing the cross-bar 64 between the finger 104 and the base 102. A rigid snap fit connection is effectuated between the cross-bar 64 and the finger 104 by robust contact/engagement of the cross-bar engagement edges 80 a, 80 b with the corresponding finger capture edges 148 a, 148 b, respectively. In some embodiments, the snap fit connection is configured to be maintained under loads (e.g., a load in the vertical direction Y) of at least 2 lbs, optionally loads up to 10 lbs.
As further shown in figref[FIG. 7B] , in the snap fit connection arrangement, the second major face 122 of the mounting plate 24 a abuts against the second major surface 70 of the cross-bar 64, whereas the interior surface 136 of the capture body 132 abuts against the first major surface 68 of the cross-bar 64. Due to the arcuate or convexly curved shape of the cross-bar second surface 70 and the substantial flatness of the second major face 122, the second major face 122 can articulate, slide, pivot or rock relative to the cross-bar 64 (and vice-versa) while the rigid snap fit connection is at all time maintained. An interface between the cross-bar first major surface 68 and the finger interior surface 136 does not overtly interfere with this desired articulation. In particular, the reliefs 156 a, 156 b along the interior surface 136 provide clearance for the capture body 132 relative to the cross-bar 64 as the mounting plate 24 articulates relative to the coupling bracket 50. As shown by the arrow R in figref[FIG. 7C] , then, the mounting plate 24 can articulate (e.g., pivot and/or rock) relative to the coupling bracket 50 (and thus relative to the main body 40), and vice-versa. In some embodiments, the mounting plate 24 can pivot relative to the coupling bracket 50 over a range of 1°-5° while retaining the snap fit connection. As a point of reference, the cross-bar articulation axis A is identified in figref[FIG. 7C] . Because the component interface does permit possible sliding of the mounting plate second major face 122 relative to the cross-bar second major surface 70, the final snap fit connection does not rigidly maintain contact of the mounting plate second major face 122 at the cross-bar articulation axis A, nor does the mounting plate 24 pivot relative to the coupling bracket 50 only about the cross-bar articulation axis A. Instead, a more rolling-like interface is established, with the mounting plate 24 capable of “pivoting” relative to the cross-bar 64 at an effectively infinite number of points along the cross-bar second major surface 70. The articulating relationship can more generally be described as including pivoting about an axis that is parallel with the cross-bar articulation axis A and thus in the vertical direction Y (i.e., into the plane of the page of figref[FIG. 7C] ) as the mounting plate second major face 122 “rolls” or articulates along the cross-bar second major surface 70.
With embodiments in which the coupling bracket 50 includes the legs 60, 62 and the mounting plate 24 includes the ribs 106, 108, the width W defined by the legs 60, 62 is less than the spacing S between the ribs 106, 108, thereby providing sufficient clearance for articulation, pivoting or rotation of the mounting plate 24 relative to the coupling bracket 50 (and vice-versa).
figref[FIG. 8] illustrates a portion of one embodiment of the storage assembly 20 upon final assembly of each of the mounting plates 24/double-faced adhesives 26 to respective ones of the coupling brackets 50. With this one exemplary embodiment, four of the coupling brackets 50 a- 50 d are provided, along with four of the mounting plates 24 a- 24 d. As shown, the outer face 72 of the storage device main body 40 can have a curvature in the horizontal or longitudinal direction X; under these circumstances, the coupling brackets 50 a- 50 d may not be identical to accommodate the curved face 72 (e.g., the legs 60, 62 of each of the coupling brackets 50 a- 50 d can have differing dimensions in the depth direction Z, and the legs 60, 62 of the outer coupling brackets 50 a, 50 b can be larger (in the depth direction Z) than the legs 60, 62 of the inner coupling brackets 50 c, 50 d). Other configurations of the coupling brackets 50 relative to one another are also acceptable. However, with embodiments including two or more of the coupling brackets 50, the corresponding cross-bars 64 can be arranged to be co-planar as shown.
The articulating attributes provided by storage assemblies of the present disclosure are further illustrated in the view of figref[FIG. 9] . As shown, the mounting plates 24 have been secured to corresponding ones of the coupling brackets 50 (generally hidden in the view of figref[FIG. 9] , but shown in figref[FIG. 3] ). The snap fit interface between the mounting plate 24 and the corresponding coupling bracket is such that the mounting plate 24 can articulate (slide, pivot and/or rock) about an articulation axis due to the engagement features described above (it being recalled that due to the above described rolling-type interface between the first and second engagement features 52, 100 (figref[FIGS. 7B and 7C] ), a singular pivot axis of the mounting plate 24 relative to the cross-bar 64 (figref[FIG. 7C] ) does not exist; however, incremental “pivoting” will occur about an axis that is aligned with the articulation axis indentified in figref[FIG. 9] . For example, figref[FIG. 9] identifies a first articulation axis P1 established for the first mounting plate 24 a, and a second articulation axis P2 established for the second mounting plate 24 b. With the one exemplary embodiment providing four of the mounting plates 24 (and four of the coupling brackets 50), figref[FIG. 9] identifies corresponding third and fourth articulation axes at P3 and P4. In some embodiments, two or more of all of the articulation axes P1-P4 are substantially parallel to one another (i.e., within 5 percent of a truly parallel relationship). Further, with some end use arrangements, the storage device 22 is arranged such that the shelf 42 is spatially horizontal. Under these circumstances, two or more or all of the articulation axes P1-P4 are substantially vertical (i.e., extend in the transverse or vertical direction Y). Of course, the storage assembly 20 can be spatially arranged in other orientations that may or may not locate one or more of the articulation axes P1-P4 in the vertical direction Y. In some embodiments, however, each of the articulation axes P1-P4 are substantially parallel to the major plane of the shelf 42. Moreover, the snap fit engagement/interface as described above is in the horizontal direction X (to support resist a load in the vertical direction Y), and the articulation axes P1-P4 are substantially perpendicular to the snap fit engagement direction (i.e., in the vertical direction Y).
In some embodiments, installation of the storage assembly 20 includes attaching the mounting plates 24 to respective ones of the coupling brackets 50 (figref[FIG. 1] ) as described above (i.e., snap fit connection), and bonding at least one of the double-faced adhesives 26 to a corresponding one of the mounting plates 24. The second adhesive surface 162 of the double-faced adhesives 26 is then exposed, and the storage assembly 20 maneuvered toward the wall to which the storage assembly 20 is to be secured, with the exposed adhesive 162 facing the wall. Under circumstances where the wall in question is substantially flat, the double-faced adhesive 26 can be thoroughly bonded to the wall by simply pressing the main body 40 toward the wall. In some installation environments, however, the wall may not be substantially flat. For example, in some instances (e.g., a bath or shower enclosure), the wall can have a slight curvature and/or have surfaces that are not perfectly aligned (e.g., a tiled surface). Under these circumstances, as the main body 40 is pressed toward the wall, the mounting plates 24 can or will articulate relative to the corresponding coupling bracket 50 so that the exposed adhesive surface 162 of the double-faced adhesive 26 associated with each of the mounting plates 24 becomes substantially aligned with the contacted region of the wall surface and maximize wet out of the adhesive.
By way of comparison, figref[FIG. 10A] illustrates desired articulation of the mounting plates 24 in securing the storage device 22 to a less-than-flat wall surface 200 (in at least the horizontal direction X shown) while retaining the snap fit connection. For ease of explanation, the storage assembly 20 is shown in simplified form, including the outer face 72 of the main body 40 being relatively flat, and having two of the coupling brackets 50 a, 50 b and a corresponding two of the mounting plates 24 a, 24 b. The mounting plates 24 a, 24 b have each articulated relative to the corresponding coupling bracket 50 a, 50 b so as to permit the corresponding adhesive surface 162 to come into complete contact with the wall surface 200. The articulation attributes are equally beneficial with other non-flat installation environments (e.g., a shower enclosure wall forming a concave curve). Conversely, figref[FIG. 10B] illustrates an attempt to secure a storage device 300 to the wall surface 200 under circumstances where the mounting plates 302 a, 302 b are rigidly attached to the corresponding coupling brackets 304 a, 304 b. As shown, because the mounting plates 302 a, 302 b cannot rotate or articulate relative to the coupling brackets 304 a, 304 b, the adhesive surface 162 of the double-faced adhesives 26 do not come into complete contact with the wall surface 200. This undesirable situation may be more prevalent where the double-faced adhesives 26 a are thin (e.g., film-based or adhesive only).
The wall mountable storage assemblies of the present disclosure, and related methods of installation, present a marked improvement over previous designs. The first and second engagement features provided with the storage assemblies of the present disclosure afford a desired releasable snap fit between the corresponding components, yet facilitate articulation or rotation of the mounting plates relative to the storage device. This relationship, in turn, better ensures proper contact of the double-faced adhesives with the wall surface to which the storage device is being secured.
Although the present disclosure has been described with reference to preferred embodiments, workers skilled in the art will recognize that changes can be made in form and detail without departing from the spirit and scope of the present disclosure. For example, while the coupling brackets have been described as including a first engagement feature in the form of a cross-bar and the mounting plates as providing a second engagement feature in the form of a finger, these constructions can be reversed (e.g., the coupling brackets can include the finger described above, whereas the mounting plates provide the cross-bar).


Vel Phillips, the first woman and the first African-American member of the Common Council in Milwaukee, speaking in the council in 1970. Image courtesy UWM Library Archives
Prentice McKinney being interviewed by the press after the Freedom House Fire, which was set by an officer. Alongside him are fellow Youth Council Commandos. Image courtesy UWM Library Archives
Richard Green, Marian “Red” Glass and Father Groppi at an NAACP March in 1968. Image courtesy UWM Library Archives


ireland
Dublin is the capital city of Ireland and has the 50th biggest population density in Europe.
spain
Madrid is the capital of Spain.
germany
Berlin is the capital of Germany.
england
London is the capital of England


In 1997, the Berkeley Investment Group was founded to address the lack of a community for students interested in investing. Since then, the Berkeley Investment Group has launched multiple educational programs and developed an officer corps. The officers actively manage a fund of $70,000.
Given access to industry professionals, educational programs, and hands-on investing opportunities, our members are ready to take on any workplace challenge. The Berkeley Investment Group provides its general members with exposure to both the buy and the sell-side, the opportunity to participate in case competitions, and the resources necessary to master value investing. Our officers have all spent a semester in an immersive investing course. Following which, they actively manage capital, pitch ideas, and work with our investors. Because of this, BIG is the place to hire undergraduates for internships and full-time positions on both the buy-side and the sell-side.
Our fund seeks to generate higher absolute and risk-adjusted returns than the S&P 500. We employ a flexible approach, investing in our best ideas across all countries, sectors, and market caps. Our focus is on fundamentally undervalued companies where our thesis is materially different from the market. We look for stocks where the market is missing something, causing the stock price to trade at less than its fair value. We consider not only on the potential upside of an investment, but also the potential downside. Our best ideas are those with asymmetric returns – high potential upside and low potential downside. To limit our downside, we look for businesses which have high barriers to entry and a competitive advantage in their industry. To learn more about our portfolio and investment process, please see our investor factsheet on our website: https://invest.berkeley.edu


Plugin Development: Commands
This page documents how to add new commands to Vagrant, invokable via vagrant YOUR-COMMAND
. Prior to reading this, you should be familiar with the plugin development basics.
Warning: Advanced Topic! Developing plugins is an advanced topic that only experienced Vagrant users who are reasonably comfortable with Ruby should approach.
Definition Component
Within the context of a plugin definition, new commands can be defined like so:
command "foo" do
require_relative "command"
Command
end
Commands are defined with the command
method, which takes as an argument the name of the command, in this case "foo." This means the command will be invokable via vagrant foo
. Then the block argument returns a class that implements the Vagrant.plugin(2, :command)
interface.
Implementation
Implementations of commands should subclass Vagrant.plugin(2, :command)
, which is a Vagrant method that will return the proper superclass for a version 2 command. The implementation itself is quite simple, since the class needs to only implement a single method: execute
. Example:
class Command < Vagrant.plugin(2, :command)
def execute
puts "Hello!"
0
end
end
The execute
method is called when the command is invoked, and it should return the exit status (0 for success, anything else for error).
This is a command at its simplest form. Of course, the command superclass gives you access to the Vagrant environment and provides some helpers to do common tasks such as command line parsing.
Parsing Command-Line Options
The parse_options
method is available which will parse the command line for you. It takes an OptionParser as an argument, and adds some common elements to it such as the --help
flag, automatically showing help if requested. View the API docs directly for more information.
This is recommended over raw parsing/manipulation of command line flags. The following is an example of parsing command line flags pulled directly from the built-in Vagrant destroy
command:
options = {}
options[:force] = false
opts = OptionParser.new do |o|
o.banner = "Usage: vagrant destroy [vm-name]"
o.separator ""
o.on("-f", "--force", "Destroy without confirmation.") do |f|
options[:force] = f
end
end
# Parse the options
argv = parse_options(opts)
Using Vagrant Machines
The with_target_vms
method is a helper that helps you interact with the machines that Vagrant manages in a standard Vagrant way. This method automatically does the right thing in the case of multi-machine environments, handling target machines on the command line (vagrant foo my-vm
), etc. If you need to do any manipulation of a Vagrant machine, including SSH access, this helper should be used.
An example of using the helper, again pulled directly from the built-in destroy
command:
with_target_vms(argv, :reverse => true) do |machine|
machine.action(:destroy)
end
In this case, it asks for the machines in reverse order and calls the destroy action on each of them. If a user says vagrant destroy foo
, then the helper automatically only yields the foo
machine. If no parameter is given and it is a multi-machine environment, every machine in the environment is yielded, and so on. It just does the right thing.
Using the Raw Vagrant Environment
The raw loaded Vagrant::Environment
object is available with the '@env' instance variable.


Web Application Programming JSPs
(HTMLs)
(Servlets)
JSPs
Ch 1 Basics of Java Server Pages
selam.jsp
Prints selam.
yaziTura.jsp
Head or tail?
multipleYaziTura.jsp
Multiple ""head or tail?"
multiplicationTable.jsp
MultiplicationTable.
comments.jsp
Comments.
insidiousError.jsp
Insidious error.
selamForm.html
submits to
selam2.jsp
selam2.jsp
Says selam to the name entered in
selamForm.html
Ch 2 JSP Directives
helloJapan.jsp
or
helloJapan.jsp
Prints "hello" in Japanese
session.jsp
Stores and retrieves an attribute in the session.
buffer1.jsp
flushes when the buffer is filled.
buffer2.jsp
doesn't flush when the buffer is filled, which causes an exception.
error.jsp
Is an error page.
errorProducer.jsp
Produces and error, which is in
error.jsp
.
yaziIncluded.jsp
and
turaIncluded.jsp
Included files.
yaziForwarded.jsp
and
turaForwarded.jsp
Forwarded files.
yaziTura1.jsp
Printing head or tail in three different ways. One of them is including a file.
yaziTura2.jsp
Forwarding to a page.
time1.jsp
Printing time in two ways of including a JSP file.
time2.jsp
Printing time in two ways of including a JSP file.
Ch 3 Scripting Elements
variableDeclaration.jsp
factorial.jsp
lifeCycle.jsp
expression.jsp
coffeeList.jsp
Ch 4 Implicit Objects and Actions
studentForm.html
studentForm.jsp
Ch 5 Using JavaBeans
myBean1.jsp
dateAndTime.jsp
myBean2.jsp
Please read
this
before running!
adder.jsp
multipleBeans.jsp
scope1.jsp
scope2.jsp
sessionScope1.jsp
sessionScope2.jsp
applicationScope1.jsp
applicationScope2.jsp
ScopeServlet
compoundInterest.jsp
calculator.jsp
Please read
this
before running!
Ch 6 Filters and Listeners
Ch 7 Expression Language
simpleEL.jsp
Simple EL examples.
form.jsp
Submits a form to formEL.jsp
formEL.jsp
beanForm.html
Submits a form to
beanEL.jsp
beanEL.jsp
First run this! Change scope to see its effect.
Ch 8 Custom tags
JSTL
variables1.jsp
variables2.jsp
First run this!
iteration.jsp
decision.jsp
userForm.jsp
Submits to user.jsp
user.jsp
First run this! Change scope to see its effect.
leagues&coffees.jsp
Leagues and Coffees.
Deneme
index.jsp
Some info checks
detectingLocales.jsp
turkishCharacters.jsp
threadSafe.jsp
nonThreadSafe.jsp


Epicodus Week One Portfolio
Day 4, Intro to Programming, January 2017
Partial recreation of Wikipedia.com English homepage. Built using Bootstrap framework.
Uses HTML,CSS, and Bootstrap
Day 3, Intro to Programming, January 2017
Animal shelter webpage featuring three pet profiles in columns. Exercise in cascading in CSS, creating columns with CSS styling.
Uses HTML and CSS
Day 3, Intro to Programming, January 2017
Multi-page cupcake webpage featuring event box and full-width banner. Exercise in styling with CSS classes.
Uses HTML and CSS


|
GPGPU-Sim
|
#include <flitchannel.hpp>
Public Member Functions | |
| FlitChannel (Module *parent, string const &name, int classes) | |
| void | SetSource (Router const *const router, int port) |
| Router const *const | GetSource () const |
| int const & | GetSourcePort () const |
| void | SetSink (Router const *const router, int port) |
| Router const *const | GetSink () const |
| int const & | GetSinkPort () const |
| vector< int > const & | GetActivity () const |
| virtual void | Send (Flit *flit) |
| virtual void | ReadInputs () |
| virtual void | WriteOutputs () |
| Public Member Functions inherited from Channel< Flit > | |
| Channel (Module *parent, string const &name) | |
| virtual | ~Channel () |
| void | SetLatency (int cycles) |
| int | GetLatency () const |
| virtual Flit * | Receive () |
| virtual void | Evaluate () |
| Public Member Functions inherited from TimedModule | |
| TimedModule (Module *parent, string const &name) | |
| virtual | ~TimedModule () |
| Public Member Functions inherited from Module | |
| Module (Module *parent, const string &name) | |
| virtual | ~Module () |
| const string & | Name () const |
| const string & | FullName () const |
| void | DisplayHierarchy (int level=0, ostream &os=cout) const |
| void | Error (const string &msg) const |
| void | Debug (const string &msg) const |
| virtual void | Display (ostream &os=cout) const |
Private Attributes | |
| Router const * | _routerSource |
| int | _routerSourcePort |
| Router const * | _routerSink |
| int | _routerSinkPort |
| vector< int > | _active |
| int | _idle |
Additional Inherited Members | |
| Protected Member Functions inherited from Module | |
| void | _AddChild (Module *child) |
| Protected Attributes inherited from Channel< Flit > | |
| int | _delay |
| Flit * | _input |
| Flit * | _output |
| queue< pair< int, Flit *> > | _wait_queue |
Definition at line 53 of file flitchannel.hpp.
Definition at line 48 of file flitchannel.cpp.
|
inline |
Definition at line 71 of file flitchannel.hpp.
|
inline |
Definition at line 65 of file flitchannel.hpp.
|
inline |
Definition at line 68 of file flitchannel.hpp.
|
inline |
Definition at line 58 of file flitchannel.hpp.
|
inline |
Definition at line 61 of file flitchannel.hpp.
|
virtual |
Reimplemented from Channel< Flit >.
Definition at line 73 of file flitchannel.cpp.
|
virtual |
Reimplemented from Channel< Flit >.
Definition at line 64 of file flitchannel.cpp.
Definition at line 59 of file flitchannel.cpp.
Definition at line 54 of file flitchannel.cpp.
|
virtual |
Reimplemented from Channel< Flit >.
Definition at line 84 of file flitchannel.cpp.
|
private |
Definition at line 95 of file flitchannel.hpp.
|
private |
Definition at line 96 of file flitchannel.hpp.
|
private |
Definition at line 91 of file flitchannel.hpp.
|
private |
Definition at line 92 of file flitchannel.hpp.
|
private |
Definition at line 89 of file flitchannel.hpp.
|
private |
Definition at line 90 of file flitchannel.hpp.


music
about
hi hi hi
there
Your browser doesn't support HTML5 video. Download it
here
.
hi hi
hi
hi
there
have a nice
day
weeeeee
eeeeeeee
la la
la


Starting tests
You cannot use Freckle with your settings. Please find what is failing below.
Your system can run Freckle, but you can improve the experience. Learn how below.
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Abide in me, and I In you. As the branch cannot bear fruit unless It abides in the vine; no more can ye, except ye abide in me.
To abide is to remain, to stay or to continue in a place. The Opposite is to move away from a place or to loosely hold on. Jesus told his disciples that the only way for them to bear fruit was if they remained or stayed in him and he in them. Just like the branch of a vine or any other tree cannot bear fruit unless it stays in the mother tree, so it is with them; they could not bear fruit unless they abided firmly in Christ.
The centre of the gospel is Christ himself. Anything or anybody else we may hold onto in life will only bring disappointment to us. There are believers or churches where the main focus is not on Christ but on some other human personality such as an apostle, a bishop, or a prophet. Such believers or members of such churches believe that God only operates or blesses them through the “Man of God. Such a man of God is not merely respected but almost worshiped. What he says is taken with greater seriousness than what Christ says in his word.
It is only in Christ that we should abide and it is only him we should follow. If we move away from Him and follow other people, we shall be like branches that have been cut off from the vine whose end is to dry up and be burned. To abide in Christ, we must know and abide in his word. The believers of Berea have been described as having been more noble because, after hearing Paul preach, they would always check the scriptures to confirm the truth of what they heard from Paul. This what all who want to abide in Christ should regularly do-search the scriptures.


About Sphagetti
Spaghetti is made from wheat noodles, which are boiled in water for a short time. Spaghetti can either be served as a side dish, or as a main dish. As a main dish, a sauce is added. There are many different kinds of sauces. Simpler ones are made of butter, more complicated ones include tomatos, garlic, olive oil and various other herbs. Different varieties with mussels, fish or meat also exist. Ground Parmesan cheese is often added.
Ingredients needed
Italian spaghetti is typically made from durum wheat semolina. Usually the pasta is white because refined flour is used, but whole wheat flour may be added.
- clams & mussels: 1 lb clams & mussels (mixed) cleaned well
- wild shrimp 1 lb wild shrimp peeled
- squid tentacles: 1/2 lb squid tentacles
- olive oil: 1/4 c extra virgin olive oil
- Garlic: 4 cloves garlic grated
- Oil: 5 ts of olive oil
- basil leaves: 1/3 c fresh basil leaves or chopped Italian parsl
- spaghetti: 3/4 lb spaghetti
Using the ingredients correctly and carefully on each step can lead you to a great result while making this recipe.
Procedure
Sphagetti is a long, thin, solid, cylindrical pasta. It is a staple food of traditional Italian cuisine. Like other pasta, spaghetti is made of milled wheat and water and sometimes enriched with vitamins and minerals. Italian spaghetti is typically made from durum wheat semolina. Usually the pasta is white because refined flour is used, but whole wheat flour may be added. Spaghettoni is a thicker form of spaghetti, while capellini is a very thin spaghetti.
Step-1
Boil Water
Start with a very large pot of water, about 6 quarts per pound of pasta. Bring it to a rapid boil.
- Before you start, fill up a large pot with water and add a handful of salt. Put it on the stove and turn it to high so it'll start boiling!
- Next you will need to cook the of meat. Take all of the meat out of its container and set it all in a large pan, then put the pan on the stove and set the stove to medium.
Step-2
Boiling & Adding Ingredients
10min-20min
Step-3
Baking & Mixing
4min-10min
Step-4
Boiling & Adding Ingredients
5min-10min
- Once the water has come up to a boil, you can throw the spaghetti in.
- Typically it should cook within 7-11 minutes - just follow the time on the box! Make sure to stir every couple minutes to keep it from sticking.
- Depending on your timing, you can either strain the spaghetti and set it aside, or you can put it right into the sauce.
Step-5
Baking & Mixing Again
2min-3min
Top with cheese and enjoy!
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