1. The `driver' table is initialized only once, making it faster and
leaking less memory.
2. The returned driver name is set to the empty string on failure.
3. Added an argument so the function cannot overwrite the end of the
drivername return value.
4. Avoids core dump when assigning driver name to return value if the
file could not be opened by any driver.
5. Changed name of function to h5dump_fopen() to follow the naming
scheme for this source file.
6. Reindented according to hdf5 code standard.
7. Added `const' qualifiers to read-only formals.
8. Removed duplicate forward declaration.
Reindented some parts of these source files that had very odd indentation
(some lines had no indentation while others had 3x what they should).
Fixed calls to H5ToolsFopen() function.
a complete file name. This distinguish file ./config/unicos from
./config/unicosmk.
Tossed in a cleanup feature by removing the temporary file when finished.
platforms. Also, it's not entirely certain that a value of 0 isn't a
valid thread ID. So, I changed the pthread_t object to be a pointer to
pthread_t with the appropriate memory management this entails. Part of
the validity of this approach rests on the fact that one can assign a
variable which is a structure to another variable of the same type and
all fields within will be copied appropriately...See! C *does* do some
things correctly :-).
library for it(H5ToolsFopen-takes a filename and a char ptr if you want the name of the driver)
added the function to h5tools.c, a header to h5tools.h and changed h5ls.c and h5dump.c to use the new
functions
cached instead of in separate structures. This reduces the amount of memory
the hash table uses by about half. This is the initial step along the path of
speeding up the metadata caching.
were only creating one for all of them). Also changed so that, if they
got an error, it actually specifies that the tests failed on the screen
instead of succeeded ;-)
return 0 on success and non-zero on failure. That's what happens with
these calls.
There was a problem compiling threading on Linux. The pthread_t type is
not consistent among different implementations, so it cannot simply be
assigned to NULL or tested against it. I initialize it by calling
HDmemset(foo_thread, 0, sizeof(pthread_t)). To see if it's a "null"
pthread, I created a special pthread_t object (assigned to only in the
init phase and then only read...i.e., thread safe) and assigned it "null"
as above. Then I use pthread_equal() to determine if the thread is null.