Simply Love boasts a distinctly simple aesthetic, competitive-tier visual clarity, and quality-of-life features. It is unquestionably the most popular ITG theme, due to its competitive nature, consistent updates, and customization.
It is included as a default theme in many different ITG simulators, such as NotITG, Club Fantastic, and ITGmania. It has so many bundled features, that many other modern themes are based off of Simply Love. Needless to say, it is highly recommended as a starting point.
Zmod Theme
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Horsey's fork of Simply Love is a fork that aims to only add to the existing Simply Love theme. No features from the mainline theme are removed. But this fork adds a several notable features such as: re-designed ScreenSelectMusic with more player statistics, a clock on home mode, and re-addition of score vocalization.
Simply-Love-zmod is one of the more popular Simply Love forks that adds a lot of aesthetic and QoL options, like comparing scores to ghost data (for both ITG and EX score), support for BoogieStats, 10ms Blue Fantastic window, folder stats on the song wheel, support for folder pass lamps and Quints and much more. This fork requires ITGmania.
Simply Styles is a project by Blizzrdball that provides more visual styles for Simply Love. These are not standalone themes, but are instead meant to be applied to an existing version of Simply Love or SL-Zmod (might work with other forks of Simply Love, but it's only tested on those two).
Waterfall is a theme developed by SteveReen, originally based off Simply Love, which has a number of new features mostly focused around improving timing/accuracy. Originally developed for ECFA 2021, Waterfall features new "default" timing windows that are stricter than either ITG or DDR (though the "legacy" ITG timing windows are still tracked and shown on the song results screen) and multiple life bars that function similarly to the life bars in the rhythm game "Sound Voltex."
Digital Dance is an ongoing Stepmania 5 theme that was originally forked from Simply Love, but is now it's own entity. It's being made by JNero with numerous QoL improvements and streamlining changes.
It includes features such as a custom lua song/course wheel, song search, better sort/sub sort options, song filters, greater depth and control over on-screen information in gameplay (such as Groovestats song records, step statistics in 2-Player mode, and column cues for steps after a player determined break), mouse controls, and many other bonuses. It is compatible with both ECS/SRPG events and ITL, as of the most recent versions of those events.
Similar to Simply ITG, Simply-ITGmania takes the ITG2 SM5 theme and adds a lot of the enhancements from Simply Love (including the zmod fork). This version adds better scroll speed options, FA+ judgements and score, GrooveStats/BoogieStats support, folder stats and stats, judgement tilt and many other features to the classic In The Groove 2 theme. Due to the drastic difference between the ITG2 and Simply Love theme, there might still be bugs, so please report them on GitHub or to @beaglebark on Discord. This theme, as the name implies, requires ITGmania to work.
The lwIP TCP server template included in SDK/Vitis makes it really easy to get high speed transfers between the PS and the host up and running quickly, which was really nice to see after struggling with other communication methods for a while. Now all that's left is getting the zmods to do cool tricks and send their results to a host machine with the help of lwIP.
Small problem... the lwIP library and its template functionality is written in C, where zmodlib is written in C++. I feel like this is such a silly thing to complain about. All I really need to do is wrap the ZMOD and ZMODADC1410 C++ classes/functions in an extern and handle name mangling, but it's just a very un-fun process, especially in a fairly dense and unfamiliar library.
I just wanted to put this issue out there to see if anyone had any clever ideas or suggestions on a possible workaround, to simultaneously check if anyone could find some flaw in my thinking (since I tend to get too excited and forget to take into consideration very important details) and give me time to procrastinate writing the interface code for zmodlib.
Why do you believe that? Clearly moving 100 MB of data over a 12 Mbaud UART channel is time consuming. Moving 16 KB over a 12 Mbaud UART might not be a burden. It depends on what you need to do with that data.
I've proposed some ideas in a previous thread that you started on this topic and you pretty much ignored it; so I'm guessing that you dismissed it out of hand. If you don't respond, then you are indicating that you don't want additional information about what's are concerns are..
The best solution is to figure out how the GEM on the Z7020 works, either in Linux or the stand-alone XIlinx supporting libraries. Evidently you've decided that this is too hard. That doesn't leave you with many options as there's no alternative hardware interfaces other that the 2 PMOD headers. There's also the Ethernet using the SYZYGY option but perhaps that's too hard as well.
Which you also suggested in the referred thread. You're correct in your assumption that I decided it was too hard. When I did begin to read into the GEM, it was admittedly overwhelming, so I mistakenly decided to give up on even attempting to understand the system entirely. The fact of the matter is that I am trying to get a comparatively complicated (to me, at least) system up and running with what very little experience and very little time I have, so I am going to default to whatever solution seems to me as the path of least resistance (in this case, it seemed like lwIP). I understand now that more effort is required to implement something as non-trivial as what I am trying to do, so I will force myself to change my mentality and not give up so easily when faced with something daunting or unfamiliar.
For context, this is an undergraduate research project in which I have been tasked with using the EZ7 platform to implement an analog signal acquisition/generation system for a compact NMR. The ZMod DAC will be used to generate the stimulus signal for the chemical sample, and the ZMod ADC will be used to capture the response signal from the NMR system. Both SYZYGY ports are used for each of the cards, which is also why I dismissed your suggestion of using the 1 GbE Ethernet PHY pod with a SYZYGY interface. The captured signal must be sent and stored on a host machine for post processing. The sampling rate for the ADC must be above 50Msps, which felt like an amount of data too great for a standard 12Mbaud UART channel to handle. In truth, I really do not know where to begin to determine this for sure. Instead of putting in the effort to figure out how to determine the capabilities of UART, I foolishly opted for ethernet instead.
The current implementation is a doctored version of the provided Scope demo from Digilent, utilizing the zmod libraries to acquire polling into a buffer that can be used to process the contents or send them elsewhere. My plan was to take the buffer populated by the aquireImmediatePolling() function and pass it to lwip_send(), but I naively assumed that would be the end of my efforts, failing to consider opening a connection in the first place, configuing netif, etc.
The PMOD headers, as you also suggested in the other thread, unfortunately do not share the same required capabilities as the zmods. With the AD5's sampling rate at 4.8kHz, it does not meet the 50Msps requirement.
In the end of the previous thread you also advised me to learn the Ethernet stack, which I did immediately after reading. You wouldn't know that, because I did not reply. I began to play around with lwIP to develop my competencies and to make the top levels of the stack more familiar to me, which lead me to get too excited and start this particular thread. My knowledge is still inadequate to implement anything useful.
Going forward I will figure out how the GEM works, as per your statement of that being the best solution. I do not doubt the amount of work you have put in to make the EZ7 a useful platform, for this I will trust your judgement. Again, apologies for the immaturity surrounding my interactions on this forum, as well as for my indifference towards learning what is unfamiliar. I will be sure to address these issues going forward.
The sampling rate is one aspect of your requirements. How many ADC and DAC channels you need to support is another. How many samples are used for the stimulus and how many are used for the response is yet another. The stimulus/response system is pretty typical. If you can fit all of your ADC and DAC samples in BRAM, then your project can be pretty straight-forward and easy, with all of the hard stuff in the PL. If you need 2 million samples for both converters, then things will be tougher. It all depends on how you design your hardware architecture.
The Eclypse-Z7 can be fine for such a project where all storage can fit into PL resources. Since the PL has no external storage other than the PS DDR. Larger storage requirements will involve 2 bidirectional DMA between the PL and the PS external memory controller. I was never suggesting that a UART could stream ADC and DAC samples in real time. But certainly this is an option if all you need to do is write to 1 32 KW BRAM storage element before you send the stimulus and read from another 32 KW storage element after the response sample time has ended. You can also do this using the PS UART, but at a considerably lower baud rate. All of this depends on your non-specified requirements. You don't need to provide those, but the more information that you can provide, the better the replies will be.
In theory, one 1 GbE can simultaneously stream 1 channel of ADC and DAC 16-bit 50 Msps samples with an arbitrary sample depth. Doing this through the PS GEM is problematic because the GEM is DMA driven, the samples are DMA driven, the PS cores use the DDR and the DDR is where the samples are stored. It's an unfortunate "feature" of the Eclypse-Z7 design. The platform isn't designed stream data from 1 ADC ZMOD and 1 DAC ZMOD to an external device. 152ee80cbc
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