qcd | Command Line App to navigate | Command Line Interface library

Okay, I managed to figure it out. The variables to use are CMAKE_"LANG"_ARCHIVE_CREATE and CMAKE_"LANG"_ARCHIVE_APPEND

Like so:

I think I found the answer. From the docs for function_score:

To use function_score, the user has to define a query and one or more functions, that compute a new score for each document returned by the query.

So, unlike my manual query in Dev Tools, I added a single function to the NEST query:

As is so often the case, the solution is "If you can't beat them, join them".

Instead of disabling jQuery validation on the elements that I am custom handling, the solution is just to lean into the jQuery validation library and use it the proper way. Everything remains the same on the .NET side, but the minMaxValidate() function becomes this:

Have you tried updating the variation cache?

update_post_meta( $product_id, '_stock_status', wc_clean( 'outofstock' ) );

wp_set_post_terms( $product_id, 'outofstock', 'product_visibility', true );

wc_delete_product_transients( $product_id );

The issue was that I had a default value for the wb_rd_data wire inside the DUT:

In theory, it should work like that. The following Elastic Query

The movs* and cmps* instructions are quite handy as they let you perform such common tasks as copying data and comparing data.

The ins* and outs* are similar to movs* in nature, they simply move data between memory and I/O devices. They are especially helpful for reading/writing to a disk in complete sectors (typically 512 bytes). Of course, DMAs obliterate these since DMA-based I/O is even more efficient, but back in the day they weren't as common as they are today.

Simulating these instructions (especially their repeated forms (look up the rep prefix)) would've required more code and would've been slower. Hence their existence.

Btw, the xchg instruction and any other read-modify-write instruction (e.g. add) with the destination in memory are also effectively memory-to-memory instructions. Not all CPUs have these, many mainly offer instructions that either read from memory or write to memory but not both (the exception would be the instructions that are used to implement exclusive/atomic access to memory, think xchg, xadd, cmpxchg8/16). CPUs with such instruction sets belong to so-called load-store architectures.

Also, the push and pop instructions may have their explicit operand designate a memory location. That's another form of memory-to-memory instructions.

As for segments, nearly all instructions that read or write memory involve segments (some system instructions work differently), so the segment management and overhead is not something you could somehow avoid if you decided not to use the instructions you're mentioning and opt for some other instructions instead.

I put the 0 to RAX and execute RDPMC

The selector goes in ECX, not EAX.

How to count the Retired Instructions on a specific process in user-mode?

Use perf stat ./a.out if you want Linux to virtualize the performance counters on context switches and CPU migrations to track things on per-process basis instead of a per-CPU basis. Or if you're programming the performance counters manually, make sure you pin your process to a core.

I often profile stuff with perf stat -etask-clock,context-switches,cpu-migrations,page-faults,cycles,branches,instructions,uops_issued.any,uops_executed.thread ./a.out. (e.g. see the output in Can x86's MOV really be "free"? Why can't I reproduce this at all?).

Perf's instructions event uses the Instructions Retired counter. (Actually it uses the fixed counter for that event, instead of using up a slot on one of the programmable counters.)

Symbolic names for non-generic uarch-specific events like uops_issued.any used to only be available in the ocperf.py wrapper script, but perf 4.15.gd8a5b8 on Arch Linux supports them directly. I think this change was pretty recent.

What are the differences between Event select C0H and Umask 00H and I want to know how to use C0H and 00H?

You have to program the programmable counter with the right event and unit mask. The umask usually selects variations of some related thing. See http://oprofile.sourceforge.net/docs/intel-haswell-events.php for a list of what the umask values for each event do on Haswell.

Besides the large an complex perf subsystem in Linux, there are already a few open-source libraries for programming the perf counters to set up for reading them from user-space. See Perf overcounting simple CPU-bound loop: mysterious kernel work? for libpfc, which includes a demo.

You really don't need to write your own if you just want to use it.

• QueryBase is the base type for all concrete query implementations

• QueryContainer is a container for a query. It is used in places where a query is expected.

• QueryContainerDescriptor is a type for building a QueryContainer using a builder / fluent interface pattern.

NEST supports both an Object Initializer syntax where requests can be composed through instantiating types and composing an object graph by assigning types to properties, and also a Fluent API syntax, where requests can be composed using Lambda expressions and a fluent interface pattern. All *Descriptor types within NEST are builders for the Fluent API syntax. Use whichever syntax you prefer, or mix and match as you see fit :)

You might be thinking, why do we need QueryContainer, why not just use QueryBase? Well, within the JSON representation, a query JSON object is keyed against the name of the query as a property of an outer containing JSON object i.e.