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A smaller (and cheaper) sbRIO based on the Xilinx Zynq chip. Target size is SO-DIMM form factor (68 x 30 mm (half the area of a credit card), 200 pins). Such a board would be OEM friendly and can be plugged into a product (rather than the current sbRIO offerings that requires the product to be developed around the sbRIO rather than the sbRIO fitting into your product). Also, a Base Board that is (only) used during development. Below is what the proposed sbRIO and Base Board would roughly look like (courtesy of Enclustra FPGA Solutions)
Some applications we are working on would benefit greatly from having some way to expose the GTP / GTX / GTH transceivers ont he various NI FPGA boards to enable high speed serial transmissions on a wider product palette. Even the Virtex 5 supprts up to 16 GTP transceivers. Having even 8 of these available for Aurora communication would be a complete game changer as we could move over to optical links between individual devices.
In order to be able to make proper use of this, NI needs to offer GTX / GTH / GTP options for many of their boards. Imagine the power which could be unlocked by itnerfacing 8x Zynq 7010 boards with a single Kintex 7, each Zynq performing some aspect of pre-processing (Analog control, switching, some aspects of control) before sending results back to the Kintex 7..... For those of us working in Scientific areas, the prospects of a system like this is truly mouth-watering.
How amazing yould it be to have the ability to visualise resource usage on a FPGA target using a similar view to that shown above (courtesy of Windirstat)
I only recently shaved a significant portion off my FPGA usage by finding out that I had a massively oversized FIFO in my code for almost a year without noticing. I feel that this kind of visualisation (with mouse over showing what is actually occupying the space) with differentiation between Registers, LUTs, BRAM, DSPs and so on would greatly aid those of us trying to squeeze as much as possible out of our FPGA designs.
I think providing this information based on the "estimated resource utilisation" i.e. before Xilinx optimises stuff away would be OK. I'm not sure if the final resource utilisation can be mapped as accurately in this way.
It would also be nice to see CLIP utilisation and NI-internal utilisation at a glance as this is apparently hugely different between targets.
We need a way to simply reinterpret the bits in our FPGAs. I currently have a situation where I need to change my SGL values into U32 for the sake of sending data up to the host. Currently, the only way is to make an IP node. That is just silly. We should be able to use the Type Cast simply for the purpose of reinterpreting the bits.
Even though ibberger touched the concept in the idea , I do think that most o people uses LabVIEW under Windows environment. Compiling a FPGA VI happens all in the PC under Windows. I noticed that during this process the compiler uses only one core. Since I'm using a machine with a 4 core processor, the CPU use rarely goes above 25%.
My idea is to update the compiler allowing it to be multicore. The user should have the option to limit the maximum number of cores available to the compiler. This is necessary because the user may want to continue working, while the compiling process is being done in background.
I just manually transferred a fairly large LabVIEW FPGA project from one target to another (7965R to 7966R). It would be nice to be able to click on the RIO target in the project and have an option to "Migrate to New FPGA Target" in the context menu. The menu would open a new dialog where you could select the new RIO target and then it is automatically added to the project and populated the VIs, FIFOs, derived clocks, memory blocks, etc. from the original target. The user can choose whether or not to delete the original RIO target.
This would also make it very easy for users to transfer sample code from the LabVIEW Example Finder to the correct FPGA target (insead of having the folder labeled "Move These Files").
With availability of fast FlexRIO cards (such as NI 5761) and FPGA framegrabbers (NI 1483, PXIe-1435, NI PCIe-1433 ) data rates of 1GB/s are becoming commonplace. However, the FPGA Module is limited to communication only with 32-bit LabVIEW. Since, typically you want to store more than 2 seconds of data in RAM,you would like to use 64-bit LabVIEW as your host application. Unfortunately, this isn't possible yet.
While, I can imagine that a full blown 64-bit FPGA Module add on would be pretty difficult to build (and especially test), I believe there is a solid middle ground at this point. I can imagine, coding and compiling the FPGA in the normal 32-bit LabVIEW environment, and then just using a 64-bit host application to Read/Write front panel controls and to read/write the DMA buffers from the FPGA. I don't know the details, but this communication protocols could be very low hanging fruit if it's just a simple matter of recompiling a few key pieces for 64-bit operation.
Since the data rates passing to and from FPGAs will continue to climb, as well as the prevalence of 64-bit OS, a 64-bit version of FPGA Module is needed in the new feature pipeline. This should also be kept in mind as other new FPGA Module features and tools are created, as planning for 64-bit compatability now will make the eventual transition to 64-bit much, much easier down the road.
I don't like static resource definitions FIFOs, Block RAMs or DMAs in my projects. I prefer to have the code declare such entities as they are required because this makes scalability much easier to achieve.
For FIFOs, BlockRAM and so this is no problem, but there are two things we currently cannot instantiate in code:
To deal with the seond option: Why is it currently not possible to create a derived clock in code. The ability to automatically have one piece of code accept a single clock reference and let one loop run at a multiple of the speed is something I've wanted to be able to do in the past but it is currently impossible in LabVIEW.
Please let us configure / define derived clocks in LV code.
When you compile on your own machine, the output of the "coregen" step is cached and used on subsequent compiles. This saves considerable time. The fact that this does not happen on the NI cloud service erases any speed gains (and more).
- Cache cores at NI. Save for xx days since last use (or forever if space is not an issue)
- Transfer cores when they exist (cached locally) to compile server along with other intermediate files
Vision is available under LabVIEW 64 bit and this makes sense since vision can generate very large amounts of data. I think now is the time to bring FPGA over to LabVIEW 64 bit as well. With FPGA systems you can also generate very large data sets. Also with cards like the PCIE 1473R, you have a VISION requiring card that generates lots of data, but it requires FPGA, so you can only use it in LabVIEW 32 bit. This is not a good thing. It has been 5 years since LabVIEW 64 bit has been released it is time to finish moving the addons over to 64 bit.
In current versions of LabVIEW FPGA, placing a For Loop inside an SCTL will result in code that cannot be compiled; this is because conventially For Loops work iteratively and therefore require multiple clock signals to drive each new iteration.
However, I think a logical implementation of a For Loop within an SCTL would be the generation of multiple parallelised instances of whatever code is inside the For Loop. This would greatly improve readability and flexibility by avoiding the user having to manually create multiple separate instances of the same critical code on the Block Diagram.
This would require the For Loop to execute a known maximum number of times.