Bitcoin And Crypto Market Cap Eye Next Break: BCH, XLM, EOS, TRX Analysis
- The total crypto market cap is currently consolidating in a range above the $232.0B support area.
- Bitcoin price is holding the $9,200 support area, but it is also facing hurdles near $9,400.
- BCH price is currently correcting lower after it failed to break the $300 resistance.
- EOS price is consolidating near $3.500 and it could correct lower towards $3.400.
- Stellar (XLM) price is climbing higher once again and it might test the $0.0800 resistance.
- Tron (TRX) price is facing a strong resistance near the $0.0200 zone.
Bitcoin (BTC) and the crypto market cap are approaching the next key break. Ethereum (ETH), BCH, stellar (XLM), ADA, EOS, ripple, and tron (TRX) are correcting lower.
Bitcoin Cash Price Analysis
Recently, BCH price climbed higher above the $295 level against the US Dollar. The price tested the $305 resistance area, where it faced a strong selling interest. As a result, the price started a downside correction below the $300 and $295 level.
On the downside, the key support is near the $285 and $280 levels. If there are more downsides, the price could test the $265 support area.
Stellar (XLM), EOS and Tron (TRX) Price Analysis
EOS price struggled near the $3.700 resistance area. As a result, there was a downside correction below the $3.650 level. The price is currently consolidating near $3.500 and it seems like it could correct lower further towards the $3.400 support area. On the upside, the main hurdles are near the $3.650 and $3.700 levels.
Stellar price corrected gains after a sharp rally towards the $0.0880 resistance area. XLM price declined and tested the $0.0700 support area. It is once again moving higher towards the $0.0800 resistance. If there are more upsides, the price may perhaps test the $0.0820 level.
Tron price struggled to stay above the $0.0200 support area and recently corrected lower. TRX price tested the $0.0195 support and it is currently consolidating in a tiny range. If there is an upside break above $0.0200, the price is likely to resume its upward move.
Looking at the total cryptocurrency market cap 4-hours chart, the $250.0B resistance zone acted as a crucial barrier for more upsides. As a result, the market cap declined and it is now consolidating in a range above the $232.0B support area. If there is a downside break, the market cap could retest the $215.0B support.
Conversely, an upside break above the $250.0B resistance is likely to spark a strong rise in bitcoin, Ethereum, EOS, ripple, litecoin, bitcoin cash, XLM, TRX, BNB, WAN, WTC, ICX, and other altcoins in the near term.


--- title: About ---
Software Engineer
GitHub: @jonathan-j-lee. Callsign: KO4CKC.
In 2020, I graduated from the University of California, Berkeley with my bachelor's in Electrical Engineering and Computer Sciences, where I focused on robotics and signal processing.
Some projects I've worked on.
Hobbies:


Bootswatch-Sass
Themes
Default
Amelia
Cerulean
Cosmo
Cyborg
Darkly
Flatly
Journal
Lumen
Readable
Simplex
Slate
Spacelab
Superhero
United
Yeti
Bootswatch
ported from Less to Sass by
victorpotasso.com


Testing implemented algorithms¶
The project also contains a different test used for testing the correctnes of implemented algorithms. The tests are written using python unittest module.
In general, there are two tests: - simple tests (GraphTest.py): testing the algorithms on a small simple graph where parameters are known in advance - networkx tests (NetworkxTest.py): comparing the results of algorithms with networkx results.
Simple tests¶
In order to run this tests, navigate to the test folder and execute the following:
python -m unittest -v GraphTest
It will output results for all the tests. Here is an example:
test_clustering (GraphTest.GraphTest) ... ok
test_degree_seq (GraphTest.GraphTest) ... ok
test_density (GraphTest.GraphTest) ... ok
test_diameter (GraphTest.GraphTest) ... ok
test_erdos_gallai (GraphTest.GraphTest) ... ok
test_isolated_vertices (GraphTest.GraphTest) ... ok
test_shortest_path_uv (GraphTest.GraphTest) ... ok
test_spanning_tree (GraphTest.GraphTest) ... ok
test_vertex_degree (GraphTest.GraphTest) ... ok
Ran 9 tests in 0.001s
OK
Networkx tests¶
As already stated, these tests are used to compare results with NetworkX module results. So far, only a few tests are implemented.
These tests can be run on different graphs provided that the format is the same as in the project description. To change the input graph, set the variable filename in NetworkxTest.py/GraphTest/setUpClass equal to the pat of file where graph description is provided.
We will test it on zachary_connected.txt example. Here is the output:
python -m unittest -v NetworkxTest
test_density (NetworkxTest.GraphTest) ... ok
test_diameter (NetworkxTest.GraphTest) ... ok
test_erdos_gallai (NetworkxTest.GraphTest) ... ok
test_isolated_vertices (NetworkxTest.GraphTest) ... ok
test_shortest_path_uv (NetworkxTest.GraphTest) ... ok
test_vertex_degree (NetworkxTest.GraphTest) ... ok
Ran 6 tests in 0.011s
OK
These tests can be also used to compare time used by the implemented algorithms and NetworkX module. This feature is not available publicly at the moment.


|
Class Summary |
| BeanClassTyper |
This class is an implementation of DynamicBeanTyper that treats
a java.lang.Class as a dynamic bean type, thus permitting a regular
JavaBean to reveal its BeanInfo through the DynamicBeanInfo interface. |
| BeanPropertyMapper |
Implementation of DynamicPropertyMapper that works off of a bean's
regular compile-time properties as discovered by introspection. |
| DynamicBeanDescriptor |
This class provides meta-information on a dynamic bean type,
particularly for user interfaces that have to manipulate objects
possessing DynamicTypes. |
| DynamicBeans |
Generic support for dynamic beans: objects exhibiting a set of dynamic
properties at runtime. |
| DynamicBeanState |
A DynamicBeanState is used to package the state of a DynamicBean's
properties and metadata in a serializable form, regardless of the
serializability of the original DynamicBean. |
| DynamicBeanStateMapper |
Implementation of DynamicPropertyMapper that can work with a
DynamicBeanState. |
| DynamicPropertyDescriptor |
This class is used to describe an individual dynamic property
accessible via a DynamicPropertyMapper. |
| SerializableFeatureDescriptor |
Subclass of java.beans.FeatureDescriptor with Serialization support. |
| SimpleDynamicBeanInfo |
Simple template implementation of DynamicBeanInfo providing
no-op values for most of its properties. |
| TaggedPropertyEditor |
A PropertyEditor implementation that wraps an existing PropertyEditor
but adds the ability to map text values to/from a set of allowed tag values. |


1) Draw a small X next to one of the long edges of the paper.
2) Print the front of the wallet.
3) Put the page back in the printer with the x facing down but on the same side of the printer as it was in step 1.
4) Print the back of the wallet.

To transfer funds to wallets cut and past the below data into this page


The Libary of Babel
J
By Jorge Luis Borges
ine Library has not foreseen and which in one of its secret tongues do not contain a terrible meaning. No one can articula
te a syllable which is not filled with tenderness and fear, which is not, in one of these languages, the powerful name of a god. To speak is to fall into tauto
logy. This wordy and useless epistle alrady exists in one of the thirty volumes of the five shelves of one of the innumerable hexagons - and its refutat
ion as well. (An n number of possible languages use the same vocabulary; in some of them, the symbol library allows the correct definition a ubiquitous and lasting sys
tem of hexagonal galleries, but library is bread or pyramid or anything else, and these seven words which define it have another value. You who read me, are You sure of understa
nding my language?) The methodical task of writing distracts me from the present state of men. The certitude that everything has been written negates us or turns us into phanto
ms. I know of districts in which the young men prostrate themselves before books and kiss their pages in a barbarous manner, but they do not know how to deciph
er a single letter. Epidemics, heretical conflicts, peregrinations which inevitably degenerate into banditry, have decimated the population. I believe I have mentioned suicides, more and mor
e frequent with the years. Perhaps my old age and fearfulness deceive me, but I suspect that the human species - the unique species - is about to be extinguished, but the Libra
ry will endure: illuminated, solitary, infinite, perfectly motionless, equipped with precious volumes, useless, incorruptible, secret. I have just written the word "infinite".' I have not interpolated this adject
ive out of rhetorical habit; I say that it is not illogical to think that the world is infinite. Those who judge it to be limited postulate that in remote places the corrido
rs and stairways and hexagons can conceivably come to an end - which is absurd. Those who imagine it to be without limit forget that the possible number of boo
ks does have such a limit. I venture to suggest this solution to the ancient problem: The Library is unlimited and cyclical. If an eternal traveler were to cross it in a
ny direction, after centuries he would see that the same volumes were repeated in the same disorder (which, thus repeated, would be an order: the Order). My solitude is gladdened by this elegant hope.


v1.2.1 Added attribution [MOD-1087]v1.2.0 Fixed issue with using module with TiSDK 3.x -- namespace issue [MOD-1000]
v1.1 [BREAKING CHANGE] Renamed "final" method in Cryptor to "finish" for Android parity. [MOD-229] Added a suite of unit tests to the example.
v1.0 Initial Release


Pots of houmous recalled due to risk of salmonella
by Sophie BarnettCadbury's chocolate, mattress toppers and various houmous pots are a few of the items which are being recalled as they pose a potential health risk.
Check the list below and make sure you don't have these products in your home.
Cadbury Dairy Milk are recalling their Little Robins chocolate packs because some contain almonds which are not mentioned on the label.
The product has been incorrectly packed with Cadbury Dairy Milk Little Robins Daim Chocolate, and is therefore a possible health risk for anyone with a nut allergy.
Batch code:CIS3092812 and CIS3092822
Best-before date: 31 March 2020
If you have bought this product and have an allergy to nuts, do not eat it. Instead return it to the store from where it was bought for a full refund or contact the Mondelez consumer care line on 0800 818181.
The Food Standards Agency are also urgently recalling various brands and flavours of houmous as they may contain salmonella.
These include a number of Aldi, Asda, Lidl, Morrisons, Nando's, Sainsbury's and Iceland brands. The full details can be found here.
The products listed may contain salmonella, with symptoms including fever, diarrhoea and abdominal cramps. If you have bought any of the houmous items listed you are advised not to eat them and instead return them to the store where they were bought for a full refund.
Meanwhile, Harvey Nichols are also recalling some of their Dark Chocolate Gingers due to three instances where pistachio nuts have been found.
The box with the bow is being recalled, with the style code 766240, batch code 190916 and a best-before date of August 30, 2020.
If you have bought this product and you have an allergy to pistachio nuts do not eat them or pass on as a gift to another party. Instead you should check your product and return it to store for a full refund.
Anyone sleeping on one of Argos' memory foam mattress toppers should check their beds immediately as a number of toppers do not conform to UK fire safety standards.
The batch codes of the unsafe memory foam mattress toppers can be found here.
A popular children's swing set by Kingsport is also being recalled as it poses a risk of strangulation.
The product is incorrectly labelled as being suitable for small children as the crotch strap can break and the seat back and bottom may come apart, causing the small child to slip down and become trapped by the neck where the two shoulder straps meet, leading to strangulation.
Therefore the product does not comply with the requirements of the Toy Safety Directive.
Find out more about these products and the full recall list here.


Classes | |
| class | ScanTraits< T, oper, backward, exclusive, multiRow, sums, fullBlock > |
| Template class containing compile-time parameters to the scan functions. More... | |
| class | SegmentedScanTraits< T, oper, backward, exclusivity, doShiftFlags, fullBlock, sums, sm12OrBetter > |
| Template class containing compile-time parameters to the segmented scan functions. More... | |
Radix Sort Functions | |
| typedef unsigned int | uint |
| template<bool doFlip> | |
| __device__ uint | floatFlip (uint f) |
| Flips bits of single-precision floating-point number (parameterized by doFlip). | |
| template<bool doFlip> | |
| __device__ uint | floatUnflip (uint f) |
| Reverses bit-flip of single-precision floating-point number (parameterized by doFlip). | |
| template<class T , int maxlevel> | |
| __device__ T | scanwarp (T val, T *sData) |
| Scans one warp quickly, optimized for 32-element warps, using shared memory. | |
| __device__ uint4 | scan4 (uint4 idata) |
| Scans 4*CTA_SIZE unsigned ints in a block. | |
| template<int ctasize> | |
| __device__ uint4 | rank4 (uint4 preds) |
| Computes output position for each thread given predicate; trues come first then falses. | |
| template<uint nbits, uint startbit> | |
| __device__ void | radixSortBlock (uint4 &key, uint4 &value) |
| Sorts one block. | |
| template<uint nbits, uint startbit> | |
| __device__ void | radixSortBlockKeysOnly (uint4 &key) |
| Sorts one block. Key-only version. | |
Rand Functions | |
| __device__ void | swizzleShift (uint4 *f) |
| Does a GLSL-style swizzle assigning f->xyzw = f->yzwx. | |
| __device__ unsigned int | leftRotate (unsigned int x, unsigned int n) |
| Rotates the bits in x over by n bits. | |
| __device__ unsigned int | F (unsigned int x, unsigned int y, unsigned int z) |
| The F scrambling function. | |
| __device__ unsigned int | G (unsigned int x, unsigned int y, unsigned int z) |
| The G scrambling function. | |
| __device__ unsigned int | H (unsigned int x, unsigned int y, unsigned int z) |
| The H scrambling function. | |
| __device__ unsigned int | I (unsigned int x, unsigned int y, unsigned int z) |
| The I scrambling function. | |
| __device__ void | FF (uint4 *td, int i, uint4 *Fr, float p, unsigned int *data) |
| The FF scrambling function. | |
| __device__ void | GG (uint4 *td, int i, uint4 *Gr, float p, unsigned int *data) |
| The GG scrambling function. | |
| __device__ void | HH (uint4 *td, int i, uint4 *Hr, float p, unsigned int *data) |
| The HH scrambling function. | |
| __device__ void | II (uint4 *td, int i, uint4 *Ir, float p, unsigned int *data) |
| The II scrambling function. | |
| __device__ void | setupInput (unsigned int *input, unsigned int seed) |
| Sets up the input array using information of seed, and threadIdx. | |
Scan Functions | |
| template<class T , class traits > | |
| __device__ void | loadSharedChunkFromMem4 (T *s_out, T threadScan0[4], T threadScan1[4], const T *d_in, int numElements, int iDataOffset, int &ai, int &bi, int &aiDev, int &biDev) |
| Handles loading input s_data from global memory to shared memory (vec4 version). | |
| template<class T , class traits > | |
| __device__ void | storeSharedChunkToMem4 (T *d_out, T threadScan0[4], T threadScan1[4], T *s_in, int numElements, int oDataOffset, int ai, int bi, int aiDev, int biDev) |
| Handles storing result s_data from shared memory to global memory (vec4 version). | |
| template<class T , class traits , int maxlevel> | |
| __device__ T | warpscan (T val, volatile T *s_data) |
| Scan all warps of a CTA without synchronization. | |
| template<class T , class traits > | |
| __device__ void | scanWarps (T x, T y, T *s_data) |
| Perform a full CTA scan using the warp-scan algorithm. | |
| template<class T , class traits > | |
| __device__ void | scanCTA (T *s_data, T *d_blockSums, unsigned int blockSumIndex) |
| CTA-level scan routine; scans s_data in shared memory in each thread block. | |
| #define | __EMUSYNC |
| Macro to insert necessary __syncthreads() in device emulation mode. | |
| #define | DISALLOW_LOADSTORE_OVERLAP 1 |
Segmented scan Functions | |
| template<class T , typename traits > | |
| __device__ void | loadForSegmentedScanSharedChunkFromMem4 (T *s_odata, T threadScan0[4], T threadScan1[4], unsigned int &threadFlag, unsigned int *s_oflags, unsigned int *s_oindices, const T *d_idata, const unsigned int *d_iflags, int numElements, int iDataOffset, int &ai, int &bi, int &aiDev, int &biDev) |
| Handles loading input s_data from global memory to shared memory (vec4 version). | |
| template<class T , class traits > | |
| __device__ void | storeForSegmentedScanSharedChunkToMem4 (T *d_odata, T threadScan0[4], T threadScan1[4], unsigned int threadFlag, T *s_idata, unsigned int numElements, int oDataOffset, int ai, int bi, int aiDev, int biDev) |
| Handles storing result s_data from shared memory to global memory (vec4 version). | |
| template<class T , class traits , unsigned int blockSize> | |
| __device__ T | reduceCTA (T *s_data) |
| template<class T , class traits , bool isExclusive, unsigned int maxlevel> | |
| __device__ void | warpSegScan (T val, unsigned int flag, volatile T *s_data, volatile unsigned int *s_flags, T &oVal, unsigned int &oFlag) |
| template<class T , class traits > | |
| __device__ void | segmentedScanWarps (T val1, unsigned int flag1, T val2, unsigned int flag2, T *s_data, unsigned int *s_flags) |
| template<class T , class traits > | |
| __device__ void | segmentedScanCTA (T *s_data, unsigned int *s_flags, unsigned int *s_indices, T *d_blockSums=0, unsigned int *d_blockFlags=0, unsigned int *d_blockIndices=0) |
| CTA-level segmented scan routine;. |
__device__
functions that are called from within other CUDA device functions (typically CUDPP Kernel-Level API functions). They are called CTA-level functions because they typically process s_data "owned" by each CTA within shared memory, and are agnostic of any other CTAs that may be running (or how many CTAs are running), other than to compute appropriate global memory addresses. | #define DISALLOW_LOADSTORE_OVERLAP 1 |
This is used to insert syncthreads to avoid perf loss caused by 128-bit load overlap that happens on G80. This gives about a 15% boost on scans on G80.
| __device__ uint floatFlip | ( | uint | f | ) | [inline] |
Flips bits of single-precision floating-point number (parameterized by doFlip).
flip a float for sorting finds SIGN of fp number. if it's 1 (negative float), it flips all bits if it's 0 (positive float), it flips the sign only
| [in] | f | floating-point input (passed as unsigned int) |
| __device__ uint floatUnflip | ( | uint | f | ) | [inline] |
Reverses bit-flip of single-precision floating-point number (parameterized by doFlip).
flip a float back (invert FloatFlip) signed was flipped from above, so: if sign is 1 (negative), it flips the sign bit back if sign is 0 (positive), it flips all bits back
| [in] | f | floating-point input (passed as unsigned int) |
| __device__ T scanwarp | ( | T | val, | |
| T * | sData | |||
| ) | [inline] |
Scans one warp quickly, optimized for 32-element warps, using shared memory.
Scans each warp in parallel ("warp-scan"), one element per thread. uses 2 numElements of shared memory per thread (64 numElements per warp)
| [in] | val | Elements per thread to scan |
| [in,out] | sData |
| __device__ uint4 scan4 | ( | uint4 | idata | ) |
Scans 4*CTA_SIZE unsigned ints in a block.
scan4 scans 4*CTA_SIZE numElements in a block (4 per thread), using a warp-scan algorithm
| [in] | idata | 4-vector of integers to scan |
| __device__ uint4 rank4 | ( | uint4 | preds | ) | [inline] |
Computes output position for each thread given predicate; trues come first then falses.
Rank is the core of the radix sort loop. Given a predicate, it computes the output position for each thread in an ordering where all True threads come first, followed by all False threads. This version handles 4 predicates per thread; hence, "rank4".
| [in] | preds | true/false values for each of the 4 elements in this thread |
| __device__ void radixSortBlock | ( | uint4 & | key, | |
| uint4 & | value | |||
| ) | [inline] |
Sorts one block.
Uses rank to sort one bit at a time: Sorts a block according to bits startbit -> nbits + startbit
| [in,out] | key | |
| [in,out] | value |
| __device__ void radixSortBlockKeysOnly | ( | uint4 & | key | ) | [inline] |
Sorts one block. Key-only version.
Uses rank to sort one bit at a time: Sorts a block according to bits startbit -> nbits + startbit
| [in,out] | key |
| __device__ void swizzleShift | ( | uint4 * | f | ) |
Does a GLSL-style swizzle assigning f->xyzw = f->yzwx.
It does the equvalent of f->xyzw = f->yzwx since this functionality is in shading languages but not exposed in CUDA.
| [in] | f | the uint4 data type which will have its elements shifted. Passed in as pointer. |
| __device__ unsigned int leftRotate | ( | unsigned int | x, | |
| unsigned int | n | |||
| ) |
Rotates the bits in x over by n bits.
This is the equivalent of the ROTATELEFT operation as described in the MD5 working memo. It takes the bits in x and circular shifts it over by n bits.
For more information see: The MD5 Message-Digest Algorithm
| [in] | x | the variable with the bits |
| [in] | n | the number of bits to shift left by. |
| __device__ unsigned int F | ( | unsigned int | x, | |
| unsigned int | y, | |||
| unsigned int | z | |||
| ) |
The F scrambling function.
The F function in the MD5 technical memo scrambles three variables x, y, and z in the following way using bitwise logic:
(x & y) | ((~x) & z)
The resulting value is returned as an unsigned int.
For more information see: The MD5 Message-Digest Algorithm
| [in] | x | See the above formula |
| [in] | y | See the above formula |
| [in] | z | See the above formula |
| __device__ unsigned int G | ( | unsigned int | x, | |
| unsigned int | y, | |||
| unsigned int | z | |||
| ) |
The G scrambling function.
The G function in the MD5 technical memo scrambles three variables x, y, and z in the following way using bitwise logic:
(x & z) | ((~z) & y)
The resulting value is returned as an unsigned int.
For more information see: The MD5 Message-Digest Algorithm
| [in] | x | See the above formula |
| [in] | y | See the above formula |
| [in] | z | See the above formula |
| __device__ unsigned int H | ( | unsigned int | x, | |
| unsigned int | y, | |||
| unsigned int | z | |||
| ) |
The H scrambling function.
The H function in the MD5 technical memo scrambles three variables x, y, and z in the following way using bitwise logic:
(x ^ y ^ z)
The resulting value is returned as an unsigned int.
For more information see: The MD5 Message-Digest Algorithm
| [in] | x | See the above formula |
| [in] | y | See the above formula |
| [in] | z | See the above formula |
| __device__ unsigned int I | ( | unsigned int | x, | |
| unsigned int | y, | |||
| unsigned int | z | |||
| ) |
The I scrambling function.
The I function in the MD5 technical memo scrambles three variables x, y, and z in the following way using bitwise logic:
(y ^ (x | ~z))
The resulting value is returned as an unsigned int.
For more information see: The MD5 Message-Digest Algorithm
| [in] | x | See the above formula |
| [in] | y | See the above formula |
| [in] | z | See the above formula |
| __device__ void FF | ( | uint4 * | td, | |
| int | i, | |||
| uint4 * | Fr, | |||
| float | p, | |||
| unsigned int * | data | |||
| ) |
The FF scrambling function.
The FF function in the MD5 technical memo is a wrapper for the F scrambling function as well as performing its own rotations using LeftRotate and swizzleShift. The variable td is the current scrambled digest which is passed along and scrambled using the current iteration i, the rotation information Fr, and the starting input data. p is kept as a constant of 2^32. The resulting value is stored in td.
For more information see: The MD5 Message-Digest Algorithm
| [in,out] | td | The current value of the digest stored as an uint4. |
| [in] | i | The current iteration of the algorithm. This affects the values in data. |
| [in] | Fr | The current rotation order. |
| [in] | p | The constant 2^32. |
| [in] | data | The starting input to MD5. Padded from setupInput(). |
| __device__ void GG | ( | uint4 * | td, | |
| int | i, | |||
| uint4 * | Gr, | |||
| float | p, | |||
| unsigned int * | data | |||
| ) |
The GG scrambling function.
The GG function in the MD5 technical memo is a wrapper for the G scrambling function as well as performing its own rotations using LeftRotate() and swizzleShift(). The variable td is the current scrambled digest which is passed along and scrambled using the current iteration i, the rotation information Gr, and the starting input data. p is kept as a constant of 2^32. The resulting value is stored in td.
For more information see: The MD5 Message-Digest Algorithm
| [in,out] | td | The current value of the digest stored as an uint4. |
| [in] | i | The current iteration of the algorithm. This affects the values in data. |
| [in] | Gr | The current rotation order. |
| [in] | p | The constant 2^32. |
| [in] | data | The starting input to MD5. Padded from setupInput(). |
| __device__ void HH | ( | uint4 * | td, | |
| int | i, | |||
| uint4 * | Hr, | |||
| float | p, | |||
| unsigned int * | data | |||
| ) |
The HH scrambling function.
The HH function in the MD5 technical memo is a wrapper for the H scrambling function as well as performing its own rotations using LeftRotate() and swizzleShift(). The variable td is the current scrambled digest which is passed along and scrambled using the current iteration i, the rotation information Hr, and the starting input data. p is kept as a constant of 2^32. The resulting value is stored in td.
For more information see: The MD5 Message-Digest Algorithm
| [in,out] | td | The current value of the digest stored as an uint4. |
| [in] | i | The current iteration of the algorithm. This affects the values in data. |
| [in] | Hr | The current rotation order. |
| [in] | p | The constant 2^32. |
| [in] | data | The starting input to MD5. Padded from setupInput(). |
| __device__ void II | ( | uint4 * | td, | |
| int | i, | |||
| uint4 * | Ir, | |||
| float | p, | |||
| unsigned int * | data | |||
| ) |
The II scrambling function.
The II function in the MD5 technical memo is a wrapper for the I scrambling function as well as performing its own rotations using LeftRotate() and swizzleShift(). The variable td is the current scrambled digest which is passed along and scrambled using the current iteration i, the rotation information Ir, and the starting input data. p is kept as a constant of 2^32. The resulting value is stored in td.
For more information see: The MD5 Message-Digest Algorithm
| [in,out] | td | The current value of the digest stored as an uint4. |
| [in] | i | The current iteration of the algorithm. This affects the values in data. |
| [in] | Ir | The current rotation order. |
| [in] | p | The constant 2^32. |
| [in] | data | The starting input to MD5. Padded from setupInput(). |
| __device__ void setupInput | ( | unsigned int * | input, | |
| unsigned int | seed | |||
| ) |
Sets up the input array using information of seed, and threadIdx.
This function sets up the input array using a combination of the current thread's id and the user supplied seed.
For more information see: The MD5 Message-Digest Algorithm
| [out] | input | The array which will contain the initial values for all the scrambling functions. |
| [in] | seed | The user supplied seed as an unsigned int. |
| __device__ void loadSharedChunkFromMem4 | ( | T * | s_out, | |
| T | threadScan0[4], | |||
| T | threadScan1[4], | |||
| const T * | d_in, | |||
| int | numElements, | |||
| int | iDataOffset, | |||
| int & | ai, | |||
| int & | bi, | |||
| int & | aiDev, | |||
| int & | biDev | |||
| ) | [inline] |
Handles loading input s_data from global memory to shared memory (vec4 version).
Load a chunk of 8*blockDim.x elements from global memory into a shared memory array. Each thread loads two T4 elements (where T4 is, e.g. int4 or float4), computes the scan of those two vec4s in thread local arrays (in registers), and writes the two total sums of the vec4s into shared memory, where they will be cooperatively scanned with the other partial sums by all threads in the CTA.
| [out] | s_out | The output (shared) memory array |
| [out] | threadScan0 | Intermediate per-thread partial sums array 1 |
| [out] | threadScan1 | Intermediate per-thread partial sums array 2 |
| [in] | d_in | The input (device) memory array |
| [in] | numElements | The number of elements in the array being scanned |
| [in] | iDataOffset | the offset of the input array in global memory for this thread block |
| [out] | ai | The shared memory address for the thread's first element (returned for reuse) |
| [out] | bi | The shared memory address for the thread's second element (returned for reuse) |
| [out] | aiDev | The device memory address for this thread's first element (returned for reuse) |
| [out] | biDev | The device memory address for this thread's second element (returned for reuse) |
| __device__ void storeSharedChunkToMem4 | ( | T * | d_out, | |
| T | threadScan0[4], | |||
| T | threadScan1[4], | |||
| T * | s_in, | |||
| int | numElements, | |||
| int | oDataOffset, | |||
| int | ai, | |||
| int | bi, | |||
| int | aiDev, | |||
| int | biDev | |||
| ) | [inline] |
Handles storing result s_data from shared memory to global memory (vec4 version).
Store a chunk of SCAN_ELTS_PER_THREAD*blockDim.x elements from shared memory into a device memory array. Each thread stores reads two elements from shared memory, adds them to the intermediate sums computed in loadSharedChunkFromMem4(), and writes two T4 elements (where T4 is, e.g. int4 or float4) to global memory.
| [out] | d_out | The output (device) memory array |
| [in] | threadScan0 | Intermediate per-thread partial sums array 1 (contents computed in loadSharedChunkFromMem4()) |
| [in] | threadScan1 | Intermediate per-thread partial sums array 2 (contents computed in loadSharedChunkFromMem4()) |
| [in] | s_in | The input (shared) memory array |
| [in] | numElements | The number of elements in the array being scanned |
| [in] | oDataOffset | the offset of the output array in global memory for this thread block |
| [in] | ai | The shared memory address for the thread's first element (computed in loadSharedChunkFromMem4()) |
| [in] | bi | The shared memory address for the thread's second element (computed in loadSharedChunkFromMem4()) |
| [in] | aiDev | The device memory address for this thread's first element (computed in loadSharedChunkFromMem4()) |
| [in] | biDev | The device memory address for this thread's second element (computed in loadSharedChunkFromMem4()) |
| __device__ T warpscan | ( | T | val, | |
| volatile T * | s_data | |||
| ) | [inline] |
Scan all warps of a CTA without synchronization.
The warp-scan algorithm breaks a block of data into warp-sized chunks, and scans the chunks independently with a warp of threads each. Because warps execute instructions in SIMD fashion, there is no need to synchronize in order to share data within a warp (only across warps). Also, in SIMD the most efficient algorithm is a step-efficient algorithm. Therefore, within each warp we use a Hillis-and-Steele-style scan that takes log2(N) steps to scan the warp [Daniel Hillis and Guy Steele 1986], rather than the work-efficient tree-based algorithm described by Guy Blelloch [1990] that takes 2 * log(N) steps and is in general more complex to implement. Previous versions of CUDPP used the Blelloch algorithm. For current GPUs, the warp size is 32, so this takes five steps per warp.
Each thread is responsible for a single element of the array to be scanned. Each thread inputs a single value to the scan via val and returns its own scanned result element. The threads of each warp cooperate via the shared memory array s_data to scan WARP_SIZE elements.
Template parameter maxlevel allows this warpscan to be performed on partial warps. For example, if only the first 8 elements of each warp need to be scanned, then warpscan only performs log2(8)=3 steps rather than 5.
The computation uses 2 * WARP_SIZE elements of shared memory per warp to enable warps to offset beyond their input data and receive the identity element without using any branch instructions.
| [in] | val | The current threads's input to the scan |
| [in,out] | s_data | A pointer to a temporary shared array of 2*CTA_SIZE elements used to compute the warp scans |
| __device__ void scanWarps | ( | T | x, | |
| T | y, | |||
| T * | s_data | |||
| ) | [inline] |
Perform a full CTA scan using the warp-scan algorithm.
As described in the comment for warpscan(), the warp-scan algorithm breaks a block of data into warp-sized chunks, and scans the chunks independently with a warp of threads each. To complete the scan, each warp j then writes its last element to element j of a temporary shared array. Then a single warp exclusive-scans these "warp sums". Finally, each thread adds the result of the warp sum scan to the result of the scan from the first pass.
Because we scan 2*CTA_SIZE elements per thread, we have to call warpscan twice.
| x | The first input value for the current thread | |
| y | The second input value for the current thread | |
| s_data | Temporary shared memory space of 2*CTA_SIZE elements for performing the scan |
| __device__ void scanCTA | ( | T * | s_data, | |
| T * | d_blockSums, | |||
| unsigned int | blockSumIndex | |||
| ) | [inline] |
CTA-level scan routine; scans s_data in shared memory in each thread block.
This function is the main CTA-level scan function. It may be called by other CUDA __global__ or __device__ functions. This function scans 2 * CTA_SIZE elements. Each thread is responsible for one element in each half of the input array.
| [in] | s_data | The array to be scanned in shared memory |
| [out] | d_blockSums | Array of per-block sums |
| [in] | blockSumIndex | Location in d_blockSums to which to write this block's sum |
| __device__ void loadForSegmentedScanSharedChunkFromMem4 | ( | T * | s_odata, | |
| T | threadScan0[4], | |||
| T | threadScan1[4], | |||
| unsigned int & | threadFlag, | |||
| unsigned int * | s_oflags, | |||
| unsigned int * | s_oindices, | |||
| const T * | d_idata, | |||
| const unsigned int * | d_iflags, | |||
| int | numElements, | |||
| int | iDataOffset, | |||
| int & | ai, | |||
| int & | bi, | |||
| int & | aiDev, | |||
| int & | biDev | |||
| ) | [inline] |
Handles loading input s_data from global memory to shared memory (vec4 version).
Load a chunk of 8*blockDim.x elements from global memory into a shared memory array. Each thread loads two T4 elements (where T4 is, e.g. int4 or float4), computes the segmented scan of those two vec4s in thread local arrays (in registers), and writes the two total sums of the vec4s into shared memory, where they will be cooperatively scanned with the other partial sums by all threads in the CTA.
| [out] | s_odata | The output (shared) memory array |
| [out] | threadScan0 | Intermediate per-thread partial sums array 1 |
| [out] | threadScan1 | Intermediate per-thread partial sums array 2 |
| [out] | threadFlag | Intermediate array which holds 8 flags as follows Temporary register threadFlag0[4] - the flags for the first 4 elements read Temporary register threadFlag1[4] - the flags for the second 4 elements read Temporary register threadScanFlag0[4] - the inclusive OR-scan for the flags in threadFlag0[4] Temporary register threadScanFlag1[4] - the inclusive OR-scan for the flags in threadFlag1[4] We storing the 16 flags 32 bits of threadFlag Bits 0...3 contains threadFlag0[0]...threadFlag0[3] Bits 4...7 contains threadFlag1[0]...threadFlag1[3] Bits 8...11 contains threadScanFlag0[0]...threadScanFlag0[3] Bits 11...15 contains threadScanFlag1[0]...threadScanFlag1[3] |
| [out] | s_oflags | Output (shared) memory array of segment head flags |
| [out] | s_oindices | Output (shared) memory array of indices. If a flag for a position (1-based) is set then index for that position is the position, 0 otherwise. |
| [in] | d_idata | The input (device) memory array |
| [in] | d_iflags | The input (device) memory array of segment head flags |
| [in] | numElements | The number of elements in the array being scanned |
| [in] | iDataOffset | the offset of the input array in global memory for this thread block |
| [out] | ai | The shared memory address for the thread's first element (returned for reuse) |
| [out] | bi | The shared memory address for the thread's second element (returned for reuse) |
| [out] | aiDev | The device memory address for this thread's first element (returned for reuse) |
| [out] | biDev | The device memory address for this thread's second element (returned for reuse) |
| __device__ void storeForSegmentedScanSharedChunkToMem4 | ( | T * | d_odata, | |
| T | threadScan0[4], | |||
| T | threadScan1[4], | |||
| unsigned int | threadFlag, | |||
| T * | s_idata, | |||
| unsigned int | numElements, | |||
| int | oDataOffset, | |||
| int | ai, | |||
| int | bi, | |||
| int | aiDev, | |||
| int | biDev | |||
| ) | [inline] |
Handles storing result s_data from shared memory to global memory (vec4 version).
Store a chunk of 8*blockDim.x elements from shared memory into a device memory array. Each thread stores reads two elements from shared memory, adds them while respecting segment bouldaries, to the intermediate sums computed in loadForSegmentedScanSharedChunkFromMem4(), and writes two T4 elements (where T4 is, e.g. int4 or float4) to global memory.
| [out] | d_odata | The output (device) memory array |
| [out] | threadScan0 | Intermediate per-thread partial sums array 1 (contents computed in loadForSegmentedScanSharedChunkFromMem4()) |
| [in] | threadScan1 | Intermediate per-thread partial sums array 2 (contents computed in loadForSegmentedScanSharedChunkFromMem4()) |
| [in] | threadFlag | Various flags that loadForSegmentedScanSharedChunkFromMem4() needs to pass |
| [in] | s_idata | The input (shared) memory array |
| [in] | numElements | The number of elements in the array being scanned |
| [in] | oDataOffset | the offset of the output array in global memory for this thread block |
| [in] | ai | The shared memory address for the thread's first element (computed in loadForSegmentedScanSharedChunkFromMem4()) |
| [in] | bi | The shared memory address for the thread's second element (computed in loadForSegmentedScanSharedChunkFromMem4()) |
| [in] | aiDev | The device memory address for this thread's first element (computed in loadForSegmentedScanSharedChunkFromMem4()) |
| [in] | biDev | The device memory address for this thread's second element (computed in loadForSegmentedScanSharedChunkFromMem4()) |
| __device__ void segmentedScanCTA | ( | T * | s_data, | |
| unsigned int * | s_flags, | |||
| unsigned int * | s_indices, | |||
| T * | d_blockSums = 0 , |
|||
| unsigned int * | d_blockFlags = 0 , |
|||
| unsigned int * | d_blockIndices = 0 | |||
| ) | [inline] |
CTA-level segmented scan routine;.
Performs segmented scan on s_data in shared memory in each thread block with head flags in s_flags (s_tflags is a read-write copy of the head flags which are modified).
This function is the main CTA-level segmented scan function. It may be called by other CUDA __global__ or __device__ functions.
| [in] | s_data | Array to be scanned in shared memory |
| [in] | s_flags | Read-only version of flags in shared memory |
| [in] | s_indices | Temporary read-write indices array |
| [out] | d_blockSums | Array of per-block sums |
| [out] | d_blockFlags | Array of per-block OR-reduction of flags |
| [out] | d_blockIndices | Array of per-block min-reduction of indices |


mjTemplateListBox: a jquery plugin for displaying a listbox where each item is specified by a underscore template.
Tested on ie 9, chrome, firefox and safari. Download from github. Robert Tessler Oct-2013


Allowed file type: pdf; Max File Size: 5MB
*Application will not be accepted unless you submit a copy of a current unofficial transcript.


Welcome to my town page!
It lacks images, but at least it has style. And it has links, even if they don't go anywhere…
There should be more here, but I don't know what yet.


Sponsor Deliverable
| # | Item | Due Date | Sponsorship Level |
|---|---|---|---|
| 1 | Signed copy of the sponsorship pledge form | On Sign-up | All |
| 2 | Purchase Order or at least the Name and Address of the company against which an invoice can be raised | On Sign-up | All |
| 3 | Full Payment | On Sign-up | All |
| 4 | 300 px wide Transparent Logo soft copy (png) | On Payment | All |
| 5 | Your Organisation Description that needs to be uploaded on the conference website | On Payment | 200 words - Selenium & Platinum 100 words - All other sponsors 50 words - Track sponsor |
| 6 | High-res Company Logo for conf bag.Max 2 Color Logo in Vector format (CDR, SVG or PDF) | May 25th | Selenium & Conference Bag Sponsors |
| 7 | High-res Company Logo for conf TShirt. In Vector format (CDR, SVG or PDF.) To be printed in white on black tshirt | May 25th | Selenium and TShirt sponsors |
| 8 | High-res Company Logo for banners Max 2 Color Logo in Vector format (CDR, SVG or PDF) |
June 1st | All |
| 9 | Program Guide Ad (2480px wide x 3508px high @ 300px/inch resolution PNG file)
Check sample from Agile India 2014 Conf |
June 1st | One-side A4 Page - All |
| 10 | Approval for Bag Inserts (Literature or SWAG) - All sponsors need approval before sending the material to us. | June 10th | Please email<EMAIL_ADDRESS>the scanned copy. |
| 11 | Bag Inserts (Literature or SWAG) 500 copies to be sent to Agile FAQs Technology Pvt. Ltd. No.20, 12th Cross, Cubbonpet, Bengaluru - 560002, India Ph No: +91 80 41244690, 22245307 |
June 15th | 1 Page = A4 Page, 2-sides Selenium - Max 6 Pages Platinum - Max 4 Pages Gold - Max 3 Pages Track - Max 2 Pages |
| 12 | Fully formatted email message to be sent to all the participants. (Option to send the email before or after the conference.) |
Before June 15th OR After June 27th |
Selenium, Platinum and Gold |
Stall Layout
Stalls will be operation from 9:00 AM to 5:30 PM on June 24th and 25th.
Note: Your stalls will be setup on June 23rd late night (11:00 PM onwards) and will be handed over to you on June 24th 7:30 AM for any additional setup.
Stall Details
As part of the sponsorship, the conference will be giving a plain Octanorm stall with 2 spot lights, one table and 2 chairs.
However if you would like to design and fabricate your stall as per your exact branding needs, we would request you to work directly with our Event Management Company:
Harish Kumar. M
Event Circle
# 103 Ground Floor Flat No 42/2 2nd Cross
Twin Towers Cashier Layout
Taverekere Bangalore - 500039
Contact Number - +91<PHONE_NUMBER>
Email –<EMAIL_ADDRESS>Selenium Sponsor Stall Fabrication Rates
3 x 2 Meter - Backdrop wall + 1 Side Wall + Fascia + Table Branding - Rs. 22096/- Inclusive of all taxes
- Flex print & frames for Backdrop wall - 10' x 7' x 1 nos
- Flex print & frames for Side Wall - 6.6' x 7' x 1 sides
- Fascia Branding - 10' x 1' x 1 nos
- Table Branding - 2' x 3' x 1 nos
Sample from previous conference:
Platinum and Gold Sponsor Stall Fabrication Rates
2 x 2 Meter Stall with 3 Side Wall + Fascia + Table Branding - Rs. 25391/- Inclusive of all taxes
- Flex print & frames for backdrop wall & side wall - 6.6' x 8' x 3 sides
- Fascia Branding - 10' x 1' x 1 nos
- Table Branding - 2' x 3' x 1 nos
Sample Images from previous conferences:
You can get the following additional items for your stall. Rates below:
- 1) 42" LCD or 32" LCD Plasma with Stand - Rs. 3224/- Inclusive of all taxes per LCD Per Day
- 2) Laptop - Rs. 1500/- Inclusive of all taxes per laptop per day
- 3) DVD Player - Rs.510/- Inclusive of all taxes per DVD player per day
- 4) Bar Stool (Black) - 540/- Inclusive of all taxes Bar stool Per day
- 5) Round Glass - Rs.695/- Inclusive of all taxes per round table
- 6) 2 Seater Sofa - Rs.1536/- Inclusive of all taxes per Sofa per day
- 7) High discussion table - Rs.945/- Inclusive of all taxes per table per day
- 8) Brochure Stand - Rs.575/- Inclusive of all taxes per Brochure stand per day
- 9) Coffee Table - Rs .600/- Inclusive of all taxes per table per day
- 10) Fish Bowl - Rs.525/- Inclusive of all taxes per bowl per day
- 11) Visitor Book - Rs.675/- Inclusive of all taxes per book per day
Contact Mr. Harish at<EMAIL_ADDRESS>for more details about the stalls.


 It even has MONTY PYTHON regular John Cleese supplying the voice of George's intellectual sidekick, the ape named "Ape."
Brendan Fraser, who has been in a long string of silly movies (including ENCINO MAN) and a few serious ones (the best being SCHOOL TIES) hams it up as George. Everyone in the show knows that they have signed up to do a farce so they milk the slapstick as hard they can. Depending on your point of view, this film is either truly awful or so bad it is good. In either case, be warned that a little of this repetitive movie can go a long way.
The show starts with Ursula Stanhope (played by Leslie Mann from THE CABLE GUY), a rich heiress from "Frisco", and her snooty fiance, Lyle Vandergroot (Thomas Haden Church), on a safari in darkest Africa. They are there to see apes, and while in camp, they hear of the existence of a white ape.
Ursula, a ditzy blonde with the brainpower of a church mouse, seems well matched to her intended. Lyle, with his ascot and his desire for a latte in the jungle, has an intelligence equal to his fiancee's.  Both Mann and Church play their characters as pure camp.
The best actor in the show is never seen. Keith Scott, with a voice like Robin Leach from "Lifestyles of the Rich and Famous," is the film's all-knowing narrator. When Lyle, on a lark, causes one of his guides to fall several thousand feet into the river canyon, the narrator reassures the kiddies in the audience. "Don't worry," he tells them. "Nobody dies in this story. They just get really big boo-boos." And when George gets shot point blank in the head, the narrator reasons with us, "George can't die because he's the star."
After the narrator, the next best parts of the film are the few special effects. Most of us never seen a full grown elephant that jumps around and has all the mannerisms of a dog. George has just such a hybrid, and the elephant is the largest and most unusual version of man's best friend you are ever likely to see. Imagine an elephant playing fetch.
Of course, George's raison d'etre is his proclivity to crash into everything, especially trees. ("Watch out for that tree!" is the show's mantra.) Fraser has the muscular body and the ridiculous smile that makes him well chosen for the part. George's costume consists solely of what he refers to as a "mud flap," and his home is a Swiss Family Robinson-style tree house, complete with an elevator.
After way too many flatulence jokes, GEORGE OF THE JUNGLE finally runs out of gas and ends. But don't leave yet. There's a funny epilogue set in Las Vegas.
And then it does end, well sort of. The film's theme song is guaranteed to remain firmly planted in your brain for months. You'll be singing it at the office, driving your coworkers crazy. ("George, George, George of the jungle, watch out for that treeeeee!" Aargh, I'm doing it again.)
GEORGE OF THE JUNGLE runs 1:32, which is longer than it sounds. The movie is rated PG, but consider it a G and fine for kids of any age. My son Jeffrey, age 8, thought it was "great!" His favorite part was when George's doggish elephant loaded his trunk up like a cannon and shot a bad guy in the rear with a toucan. I give the picture a mild thumbs up and ** 1/2.
**** = A must see film. *** = Excellent show. Look for it. ** = Average movie. Kind of enjoyable. * = Poor show. Don't waste your money. 0 = Totally and painfully unbearable picture.
REVIEW WRITTEN ON: July 15, 1997
Opinions expressed are mine and not meant to reflect my employer's.
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


Documents Ganeti version 2.12
Contents
In order to allow customisation of operations, Ganeti runs scripts in sub-directories of @SYSCONFDIR@/ganeti/hooks. These sub-directories are named $hook-$phase.d, where $phase is either pre or post and $hook matches the directory name given for a hook (e.g. cluster-verify-post.d or node-add-pre.d).
This is similar to the /etc/network/ structure present in Debian for network interface handling.
For every operation, two sets of scripts are run:
Also, for each operation, the scripts are run on one or more nodes, depending on the operation type.
Note that, even though we call them scripts, we are actually talking about any executable.
The pre scripts have a definite target: to check that the operation is allowed given the site-specific constraints. You could have, for example, a rule that says every new instance is required to exists in a database; to implement this, you could write a script that checks the new instance parameters against your database.
The objective of these scripts should be their return code (zero or non-zero for success and failure). However, if they modify the environment in any way, they should be idempotent, as failed executions could be restarted and thus the script(s) run again with exactly the same parameters.
Note that if a node is unreachable at the time a hooks is run, this will not be interpreted as a deny for the execution. In other words, only an actual error returned from a script will cause abort, and not an unreachable node.
Therefore, if you want to guarantee that a hook script is run and denies an action, it’s best to put it on the master node.
These scripts should do whatever you need as a reaction to the completion of an operation. Their return code is not checked (but logged), and they should not depend on the fact that the pre scripts have been run.
The allowed names for the scripts consist of (similar to run-parts) upper and lower case, digits, underscores and hyphens. In other words, the regexp ^[a-zA-Z0-9_-]+$. Also, non-executable scripts will be ignored.
On a single node, the scripts in a directory are run in lexicographic order (more exactly, the python string comparison order). It is advisable to implement the usual NN-name convention where NN is a two digit number.
For an operation whose hooks are run on multiple nodes, there is no specific ordering of nodes with regard to hooks execution; you should assume that the scripts are run in parallel on the target nodes (keeping on each node the above specified ordering). If you need any kind of inter-node synchronisation, you have to implement it yourself in the scripts.
The scripts will be run as follows:
All information about the cluster is passed using environment variables. Different operations will have sligthly different environments, but most of the variables are common.
Adds a node to the cluster.
| directory: | node-add |
|---|---|
| env. vars: | NODE_NAME, NODE_PIP, NODE_SIP, MASTER_CAPABLE, VM_CAPABLE |
| pre-execution: | all existing nodes |
| post-execution: | all nodes plus the new node |
Removes a node from the cluster. On the removed node the hooks are called during the execution of the operation and not after its completion.
| directory: | node-remove |
|---|---|
| env. vars: | NODE_NAME |
| pre-execution: | all existing nodes except the removed node |
| post-execution: | all existing nodes |
Changes a node’s parameters.
| directory: | node-modify |
|---|---|
| env. vars: | MASTER_CANDIDATE, OFFLINE, DRAINED, MASTER_CAPABLE, VM_CAPABLE |
| pre-execution: | master node, the target node |
| post-execution: | master node, the target node |
Relocate secondary instances from a node.
| directory: | node-migrate |
|---|---|
| env. vars: | NODE_NAME |
| pre-execution: | master node |
| post-execution: | master node |
Adds a node group to the cluster.
| directory: | group-add |
|---|---|
| env. vars: | GROUP_NAME |
| pre-execution: | master node |
| post-execution: | master node |
Changes a node group’s parameters.
| directory: | group-modify |
|---|---|
| env. vars: | GROUP_NAME, NEW_ALLOC_POLICY |
| pre-execution: | master node |
| post-execution: | master node |
Removes a node group from the cluster. Since the node group must be empty for removal to succeed, the concept of “nodes in the group” does not exist, and the hook is only executed in the master node.
| directory: | group-remove |
|---|---|
| env. vars: | GROUP_NAME |
| pre-execution: | master node |
| post-execution: | master node |
Renames a node group.
| directory: | group-rename |
|---|---|
| env. vars: | OLD_NAME, NEW_NAME |
| pre-execution: | master node and all nodes in the group |
| post-execution: | master node and all nodes in the group |
Evacuates a node group.
| directory: | group-evacuate |
|---|---|
| env. vars: | GROUP_NAME, TARGET_GROUPS |
| pre-execution: | master node and all nodes in the group |
| post-execution: | master node and all nodes in the group |
Adds a network to the cluster.
| directory: | network-add |
|---|---|
| env. vars: | NETWORK_NAME, NETWORK_SUBNET, NETWORK_GATEWAY, NETWORK_SUBNET6, NETWORK_GATEWAY6, NETWORK_MAC_PREFIX, NETWORK_TAGS |
| pre-execution: | master node |
| post-execution: | master node |
Removes a network from the cluster.
| directory: | network-remove |
|---|---|
| env. vars: | NETWORK_NAME |
| pre-execution: | master node |
| post-execution: | master node |
Connects a network to a nodegroup.
| directory: | network-connect |
|---|---|
| env. vars: | GROUP_NAME, NETWORK_NAME, GROUP_NETWORK_MODE, GROUP_NETWORK_LINK, GROUP_NETWORK_VLAN, NETWORK_SUBNET, NETWORK_GATEWAY, NETWORK_SUBNET6, NETWORK_GATEWAY6, NETWORK_MAC_PREFIX, NETWORK_TAGS |
| pre-execution: | nodegroup nodes |
| post-execution: | nodegroup nodes |
Disconnects a network from a nodegroup.
| directory: | network-disconnect |
|---|---|
| env. vars: | GROUP_NAME, NETWORK_NAME, GROUP_NETWORK_MODE, GROUP_NETWORK_LINK, GROUP_NETWORK_VLAN, NETWORK_SUBNET, NETWORK_GATEWAY, NETWORK_SUBNET6, NETWORK_GATEWAY6, NETWORK_MAC_PREFIX, NETWORK_TAGS |
| pre-execution: | nodegroup nodes |
| post-execution: | nodegroup nodes |
Modifies a network.
| directory: | network-modify |
|---|---|
| env. vars: | NETWORK_NAME, NETWORK_SUBNET, NETWORK_GATEWAY, NETWORK_SUBNET6, NETWORK_GATEWAY6, NETWORK_MAC_PREFIX, NETWORK_TAGS |
| pre-execution: | master node |
| post-execution: | master node |
All instance operations take at least the following variables: INSTANCE_NAME, INSTANCE_PRIMARY, INSTANCE_SECONDARY, INSTANCE_OS_TYPE, INSTANCE_DISK_TEMPLATE, INSTANCE_MEMORY, INSTANCE_DISK_SIZES, INSTANCE_VCPUS, INSTANCE_NIC_COUNT, INSTANCE_NICn_IP, INSTANCE_NICn_BRIDGE, INSTANCE_NICn_MAC, INSTANCE_NICn_NETWORK, INSTANCE_NICn_NETWORK_UUID, INSTANCE_NICn_NETWORK_SUBNET, INSTANCE_NICn_NETWORK_GATEWAY, INSTANCE_NICn_NETWORK_SUBNET6, INSTANCE_NICn_NETWORK_GATEWAY6, INSTANCE_NICn_NETWORK_MAC_PREFIX, INSTANCE_DISK_COUNT, INSTANCE_DISKn_SIZE, INSTANCE_DISKn_MODE.
The INSTANCE_NICn_* and INSTANCE_DISKn_* variables represent the properties of the n -th NIC and disk, and are zero-indexed.
The INSTANCE_NICn_NETWORK_* variables are only passed if a NIC’s network parameter is set (that is if the NIC is associated to a network defined via gnt-network)
Creates a new instance.
| directory: | instance-add |
|---|---|
| env. vars: | ADD_MODE, SRC_NODE, SRC_PATH, SRC_IMAGES |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Reinstalls an instance.
| directory: | instance-reinstall |
|---|---|
| env. vars: | only the standard instance vars |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Exports the instance.
| directory: | instance-export |
|---|---|
| env. vars: | EXPORT_MODE, EXPORT_NODE, EXPORT_DO_SHUTDOWN, REMOVE_INSTANCE |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Starts an instance.
| directory: | instance-start |
|---|---|
| env. vars: | FORCE |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Stops an instance.
| directory: | instance-stop |
|---|---|
| env. vars: | TIMEOUT |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Reboots an instance.
| directory: | instance-reboot |
|---|---|
| env. vars: | IGNORE_SECONDARIES, REBOOT_TYPE, SHUTDOWN_TIMEOUT |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Modifies the instance parameters.
| directory: | instance-modify |
|---|---|
| env. vars: | NEW_DISK_TEMPLATE, RUNTIME_MEMORY |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Failovers an instance. In the post phase INSTANCE_PRIMARY and INSTANCE_SECONDARY refer to the nodes that were repectively primary and secondary before failover.
| directory: | instance-failover |
|---|---|
| env. vars: | IGNORE_CONSISTENCY, SHUTDOWN_TIMEOUT, OLD_PRIMARY, OLD_SECONDARY, NEW_PRIMARY, NEW_SECONDARY |
| pre-execution: | master node, secondary (target) node |
| post-execution: | master node, primary (source) and secondary (target) nodes |
Migrates an instance. In the post phase INSTANCE_PRIMARY and INSTANCE_SECONDARY refer to the nodes that were repectively primary and secondary before migration.
| directory: | instance-migrate |
|---|---|
| env. vars: | MIGRATE_LIVE, MIGRATE_CLEANUP, OLD_PRIMARY, OLD_SECONDARY, NEW_PRIMARY, NEW_SECONDARY |
| pre-execution: | master node, primary (source) and secondary (target) nodes |
| post-execution: | master node, primary (source) and secondary (target) nodes |
Remove an instance.
| directory: | instance-remove |
|---|---|
| env. vars: | SHUTDOWN_TIMEOUT |
| pre-execution: | master node |
| post-execution: | master node, primary and secondary nodes |
Grows the disk of an instance.
| directory: | disk-grow |
|---|---|
| env. vars: | DISK, AMOUNT |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Renames an instance.
| directory: | instance-rename |
|---|---|
| env. vars: | INSTANCE_NEW_NAME |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Move an instance by data-copying.
| directory: | instance-move |
|---|---|
| env. vars: | TARGET_NODE, SHUTDOWN_TIMEOUT |
| pre-execution: | master node, primary and target nodes |
| post-execution: | master node, primary and target nodes |
Recreate an instance’s missing disks.
| directory: | instance-recreate-disks |
|---|---|
| env. vars: | only the standard instance vars |
| pre-execution: | master node, primary and secondary nodes |
| post-execution: | master node, primary and secondary nodes |
Replace the disks of an instance.
| directory: | mirrors-replace |
|---|---|
| env. vars: | MODE, NEW_SECONDARY, OLD_SECONDARY |
| pre-execution: | master node, primary and new secondary nodes |
| post-execution: | master node, primary and new secondary nodes |
Moves an instance to another group.
| directory: | instance-change-group |
|---|---|
| env. vars: | TARGET_GROUPS |
| pre-execution: | master node |
| post-execution: | master node |
This hook is called via a special “empty” LU right after cluster initialization.
| directory: | cluster-init |
|---|---|
| env. vars: | none |
| pre-execution: | none |
| post-execution: | master node |
The post phase of this hook is called during the execution of destroy operation and not after its completion.
| directory: | cluster-destroy |
|---|---|
| env. vars: | none |
| pre-execution: | none |
| post-execution: | master node |
Verifies all nodes in a group. This is a special LU with regard to hooks, as the result of the opcode will be combined with the result of post-execution hooks, in order to allow administrators to enhance the cluster verification procedure.
| directory: | cluster-verify |
|---|---|
| env. vars: | CLUSTER, MASTER, CLUSTER_TAGS, NODE_TAGS_<name> |
| pre-execution: | none |
| post-execution: | all nodes in a group |
Renames the cluster.
| directory: | cluster-rename |
|---|---|
| env. vars: | NEW_NAME |
| pre-execution: | master-node |
| post-execution: | master-node |
Modifies the cluster parameters.
| directory: | cluster-modify |
|---|---|
| env. vars: | NEW_VG_NAME |
| pre-execution: | master node |
| post-execution: | master node |
This doesn’t correspond to an actual op-code, but it is called when the master IP is activated.
| directory: | master-ip-turnup |
|---|---|
| env. vars: | MASTER_NETDEV, MASTER_IP, MASTER_NETMASK, CLUSTER_IP_VERSION |
| pre-execution: | master node |
| post-execution: | master node |
This doesn’t correspond to an actual op-code, but it is called when the master IP is deactivated.
| directory: | master-ip-turndown |
|---|---|
| env. vars: | MASTER_NETDEV, MASTER_IP, MASTER_NETMASK, CLUSTER_IP_VERSION |
| pre-execution: | master node |
| post-execution: | master node |
The following operations are no longer present or don’t execute hooks anymore in Ganeti 2.0:
Note that all variables listed here are actually prefixed with GANETI_ in order to provide a clear namespace. In addition, post-execution scripts receive another set of variables, prefixed with GANETI_POST_, representing the status after the opcode executed.
This is the list of environment variables supported by all operations:
This is the list of variables which are specific to one or more operations.
The startup of an instance will pass this environment to the hook script:
GANETI_CLUSTER=cluster1.example.com
GANETI_DATA_DIR=/var/lib/ganeti
GANETI_FORCE=False
GANETI_HOOKS_PATH=instance-start
GANETI_HOOKS_PHASE=post
GANETI_HOOKS_VERSION=2
GANETI_INSTANCE_DISK0_MODE=rw
GANETI_INSTANCE_DISK0_SIZE=128
GANETI_INSTANCE_DISK_COUNT=1
GANETI_INSTANCE_DISK_TEMPLATE=drbd
GANETI_INSTANCE_MEMORY=128
GANETI_INSTANCE_NAME=instance2.example.com
GANETI_INSTANCE_NIC0_BRIDGE=xen-br0
GANETI_INSTANCE_NIC0_IP=
GANETI_INSTANCE_NIC0_MAC=aa:00:00:a5:91:58
GANETI_INSTANCE_NIC_COUNT=1
GANETI_INSTANCE_OS_TYPE=debootstrap
GANETI_INSTANCE_PRIMARY=node3.example.com
GANETI_INSTANCE_SECONDARY=node5.example.com
GANETI_INSTANCE_STATUS=down
GANETI_INSTANCE_VCPUS=1
GANETI_MASTER=node1.example.com
GANETI_OBJECT_TYPE=INSTANCE
GANETI_OP_CODE=OP_INSTANCE_STARTUP
GANETI_OP_TARGET=instance2.example.com


{% extends 'application.html' %} {% load crispy_forms_tags %} {% block content %}
You are about to delete one track from the database, this procedure is irreversible but the song can always be added again by rescanning its source.
Do you want to proceed?


TMOpenFile Code Example
long session_handle;
unsigned char state_buffer[15360];
FileEntry fentry;
short file_handle;
short result;
/* session_handle set from a call to TMExtendedStartSession */
...
/* get the unique registration number of the device to communicate with using TMFirst,TMNext,TMRom... */
...
/* get the first file in the current directory */
result = TMFirstFile(session_handle,state_buffer,&fentry);
/* make sure a file was found that was not a directory reference */
if ((result > 0) && (fentry.extension != 0x7F))
{
/* try and open the file that was just found */
file_handle = TMOpenFile(session_handle,state_buffer,&fentry);
if (file_handle >= 0)
{
/* file is opened, ready to read using file_handle */
...
}
else
{
/* error getting file handle */
...
}
}
else
{
/* error getting first file or file entry is a directory */
...
}
OR
fentry.name[0] = 'D';
fentry.name[1] = 'E';
fentry.name[2] = 'M';
fentry.name[3] = 'O';
fentry.extension = 0;
/* try to open the file DEMO.000 */
file_handle = TMOpenFile(session_handle,state_buffer,&fentry);
if (file_handle >= 0)
{
/* file is opened, ready to read */
...
}
else
{
/* error opening file */
...
}
/* close the opened file with a call to TMCloseFile */
...
/* close the session with a call to TMEndSession */
...


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gap between icons in menu bar
-
danbo
Hey,
I've got 1.9, i notice there is a gap between the icons in the icon set which makes some icons sets look kinda wrong. Is there some way of removing this gap?
-
Greg Hurrell
In the Synergy Menu Bar preferences there is a slider for adjusting the spacing.
Reply
This topic is now closed.


Biography
My name is Ahmed, I am 23 years old, I am from Al-Jizeh/Amman/Jordan I interested to learn many different of real sciences, and I don't like the fake one, I'm working on it nowadays, and I'm so greatfull to people how support me in my career, and I wish to learn many different things before I came thirty.
Education History
- Hybrid Vehicle Technology diploma from LTUC, copmleted February 2,2020
- Highschool degree from Al-Jizeh highschool, copmleted June 6,2016
- Life Skills degree from LTUC, copmleted February 2,2020
Work Experience
I worked with a lot of companies as a worker, such as:
- International Pharmaceutical Company
- Deluxe Paints Company
Gools
- learn alot of things before I came thirty
- Keep people away from fake science
- Making alot of money
Top Ten
My top ten favorite movies is:
- The God Father
- The Maze Runner
- Tent
- The Hunger Games
- Inception
- Once Upon A Time In Hollywood
- Shutter Island
- Fight Club
- Gangs Of Newyork
- Forgotten


|
LidDriver BMP388
2.0.0
BMP388 full function driver
|
bmp388 fifo driver modules More...
Functions | |
| uint8_t | bmp388_get_fifo_length (bmp388_handle_t *handle, uint16_t *length) |
| get the fifo length More... | |
| uint8_t | bmp388_get_fifo_data (bmp388_handle_t *handle, uint8_t *data, uint16_t length) |
| get the fifo data More... | |
| uint8_t | bmp388_set_fifo_watermark (bmp388_handle_t *handle, uint16_t watermark) |
| set the fifo watermark More... | |
| uint8_t | bmp388_get_fifo_watermark (bmp388_handle_t *handle, uint16_t *watermark) |
| get the fifo watermark More... | |
| uint8_t | bmp388_set_fifo (bmp388_handle_t *handle, bmp388_bool_t enable) |
| enable or disable the fifo More... | |
| uint8_t | bmp388_get_fifo (bmp388_handle_t *handle, bmp388_bool_t *enable) |
| get the fifo status More... | |
| uint8_t | bmp388_set_fifo_stop_on_full (bmp388_handle_t *handle, bmp388_bool_t enable) |
| enable or disable the fifo stopping on full More... | |
| uint8_t | bmp388_get_fifo_stop_on_full (bmp388_handle_t *handle, bmp388_bool_t *enable) |
| get the fifo stopping on full status More... | |
| uint8_t | bmp388_set_fifo_sensortime_on (bmp388_handle_t *handle, bmp388_bool_t enable) |
| enable or disable the fifo sensortime on More... | |
| uint8_t | bmp388_get_fifo_sensortime_on (bmp388_handle_t *handle, bmp388_bool_t *enable) |
| get the fifo sensortime on status More... | |
| uint8_t | bmp388_set_fifo_pressure_on (bmp388_handle_t *handle, bmp388_bool_t enable) |
| enable or disable the fifo pressure on More... | |
| uint8_t | bmp388_get_fifo_pressure_on (bmp388_handle_t *handle, bmp388_bool_t *enable) |
| get the fifo pressure on status More... | |
| uint8_t | bmp388_set_fifo_temperature_on (bmp388_handle_t *handle, bmp388_bool_t enable) |
| enable or disable the fifo temperature on More... | |
| uint8_t | bmp388_get_fifo_temperature_on (bmp388_handle_t *handle, bmp388_bool_t *enable) |
| get the fifo temperature on status More... | |
| uint8_t | bmp388_set_fifo_subsampling (bmp388_handle_t *handle, uint8_t subsample) |
| set the fifo subsampling More... | |
| uint8_t | bmp388_get_fifo_subsampling (bmp388_handle_t *handle, uint8_t *subsample) |
| get the fifo subsampling More... | |
| uint8_t | bmp388_set_fifo_data_source (bmp388_handle_t *handle, bmp388_fifo_data_source_t source) |
| set the fifo data source More... | |
| uint8_t | bmp388_get_fifo_data_source (bmp388_handle_t *handle, bmp388_fifo_data_source_t *source) |
| get the fifo data source More... | |
| uint8_t | bmp388_flush_fifo (bmp388_handle_t *handle) |
| flush the fifo More... | |
| uint8_t | bmp388_read_fifo (bmp388_handle_t *handle, uint8_t *buf, uint16_t *len) |
| read the fifo More... | |
| uint8_t | bmp388_fifo_parse (bmp388_handle_t *handle, uint8_t *buf, uint16_t buf_len, bmp388_frame_t *frame, uint16_t *frame_len) |
| parse the fifo data More... | |
bmp388 fifo driver modules
| uint8_t bmp388_fifo_parse | ( | bmp388_handle_t * | handle, |
| uint8_t * | buf, | ||
| uint16_t | buf_len, | ||
| bmp388_frame_t * | frame, | ||
| uint16_t * | frame_len | ||
| ) |
parse the fifo data
| [in] | *handle | points to a bmp388 handle structure |
| [in] | *buf | is the fifo data |
| [in] | buf_len | is the fifo data length |
| [out] | *frame | points to a frame buffer |
| [in,out] | *frame_len | points to a frame length buffer |
Definition at line 3719 of file driver_bmp388.c.
| uint8_t bmp388_flush_fifo | ( | bmp388_handle_t * | handle | ) |
flush the fifo
| [in] | *handle | points to a bmp388 handle structure |
Definition at line 2598 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t * | enable | ||
| ) |
get the fifo status
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *enable | points to a bool buffer |
Definition at line 750 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_data | ( | bmp388_handle_t * | handle, |
| uint8_t * | data, | ||
| uint16_t | length | ||
| ) |
get the fifo data
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *data | points to a data buffer |
| [in] | length | is the data buffer length |
Definition at line 595 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_data_source | ( | bmp388_handle_t * | handle, |
| bmp388_fifo_data_source_t * | source | ||
| ) |
get the fifo data source
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *source | points to fifo data source buffer |
Definition at line 1248 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_length | ( | bmp388_handle_t * | handle, |
| uint16_t * | length | ||
| ) |
get the fifo length
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *length | points to a fifo length buffer |
Definition at line 557 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_pressure_on | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t * | enable | ||
| ) |
get the fifo pressure on status
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *enable | points to a bool buffer |
Definition at line 996 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_sensortime_on | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t * | enable | ||
| ) |
get the fifo sensortime on status
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *enable | points to a bool buffer |
Definition at line 914 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_stop_on_full | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t * | enable | ||
| ) |
get the fifo stopping on full status
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *enable | points to a bool buffer |
Definition at line 832 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_subsampling | ( | bmp388_handle_t * | handle, |
| uint8_t * | subsample | ||
| ) |
get the fifo subsampling
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *subsample | points to subsample buffer |
Definition at line 1166 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_temperature_on | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t * | enable | ||
| ) |
get the fifo temperature on status
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *enable | points to a bool buffer |
Definition at line 1078 of file driver_bmp388.c.
| uint8_t bmp388_get_fifo_watermark | ( | bmp388_handle_t * | handle, |
| uint16_t * | watermark | ||
| ) |
get the fifo watermark
| [in] | *handle | points to a bmp388 handle structure |
| [out] | *watermark | points to a fifo watermark buffer |
Definition at line 668 of file driver_bmp388.c.
| uint8_t bmp388_read_fifo | ( | bmp388_handle_t * | handle, |
| uint8_t * | buf, | ||
| uint16_t * | len | ||
| ) |
read the fifo
| [in] | *handle | points to a bmp388 handle structure |
| [in] | *buf | points to a data buffer |
| [in,out] | *len | points to a data length buffer |
Definition at line 3649 of file driver_bmp388.c.
| uint8_t bmp388_set_fifo | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t | enable | ||
| ) |
enable or disable the fifo
| [in] | *handle | points to a bmp388 handle structure |
| [in] | enable | is a bool value |
Definition at line 705 of file driver_bmp388.c.
| uint8_t bmp388_set_fifo_data_source | ( | bmp388_handle_t * | handle, |
| bmp388_fifo_data_source_t | source | ||
| ) |
set the fifo data source
| [in] | *handle | points to a bmp388 handle structure |
| [in] | source | is the fifo data source |
Definition at line 1203 of file driver_bmp388.c.
| uint8_t bmp388_set_fifo_pressure_on | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t | enable | ||
| ) |
enable or disable the fifo pressure on
| [in] | *handle | points to a bmp388 handle structure |
| [in] | enable | is a bool value |
Definition at line 951 of file driver_bmp388.c.
| uint8_t bmp388_set_fifo_sensortime_on | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t | enable | ||
| ) |
enable or disable the fifo sensortime on
| [in] | *handle | points to a bmp388 handle structure |
| [in] | enable | is a bool value |
Definition at line 869 of file driver_bmp388.c.
| uint8_t bmp388_set_fifo_stop_on_full | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t | enable | ||
| ) |
enable or disable the fifo stopping on full
| [in] | *handle | points to a bmp388 handle structure |
| [in] | enable | is a bool value |
Definition at line 787 of file driver_bmp388.c.
| uint8_t bmp388_set_fifo_subsampling | ( | bmp388_handle_t * | handle, |
| uint8_t | subsample | ||
| ) |
set the fifo subsampling
| [in] | *handle | points to a bmp388 handle structure |
| [in] | subsample | is the fifo subsample |
Definition at line 1115 of file driver_bmp388.c.
| uint8_t bmp388_set_fifo_temperature_on | ( | bmp388_handle_t * | handle, |
| bmp388_bool_t | enable | ||
| ) |
enable or disable the fifo temperature on
| [in] | *handle | points to a bmp388 handle structure |
| [in] | enable | is a bool value |
Definition at line 1033 of file driver_bmp388.c.
| uint8_t bmp388_set_fifo_watermark | ( | bmp388_handle_t * | handle, |
| uint16_t | watermark | ||
| ) |
set the fifo watermark
| [in] | *handle | points to a bmp388 handle structure |
| [in] | watermark | is the fifo watermark |
Definition at line 630 of file driver_bmp388.c.


Welcome
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While the theme itself adds all metro specific colors
and fonts by default, please don't forget to follow metro
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You have been assigned this task successfully! Please submit the link to your successful code (including a comment stating your address and this taskID) by the deadline.
You have been assigned this evaluation successfully! Please check the linked answer for correctness and assign a rating of 1-3 (1 - unfinished code attempt, 2 - correct answer fulfilling basic testcases, 3 - correct answer fulfilling all testcases). Also verify a comment stating the worker's address and taskID exists in the source code.


Saw George R. R. Martin in Seattle on Friday. Awesome day, packed with friendship, reading, and salami.
7/31/2011, 10:09:39 PM
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Saw George R. R. Martin in Seattle on Friday. Awesome day, packed with friendship, reading, and salami.
7/31/2011, 10:09:39 PM
Favs: 0
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link


Please replace (The Protein Sequence input : "ARQQNLFINFCLILIFLLLI", in the textarea) by your own sequence. Results will be generated automatically.
Notes
All calculations provided by this tool version are for demonstration purpse only. No liability can be assumed for any information provided by this site.