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MAME 0.221

MAME 0.221

Our fourth release of the year, MAME 0.221, is now ready. There are lots of interesting changes this time. We’ll start with some of the additions. There’s another load of TV games from JAKKS Pacific, Senario, Tech2Go and others. We’ve added another Panorama Screen Game & Watch title: this one features the lovable comic strip canine Snoopy. On the arcade side, we’ve got Great Bishi Bashi Champ and Anime Champ (both from Konami), Goori Goori (Unico), the prototype Galun.Pa! (Capcom CPS), a censored German version of Gun.Smoke, a Japanese location test version of DoDonPachi Dai-Ou-Jou, and more bootlegs of Cadillacs and Dinosaurs, Final Fight, Galaxian, Pang! 3 and Warriors of Fate.
In computer emulation, we’re proud to present another working UNIX workstation: the MIPS R3000 version of Sony’s NEWS family. NEWS was never widespread outside Japan, so it’s very exciting to see this running. F.Ulivi has added support for the Swedish/Finnish and German versions of the HP 86B, and added two service ROMs to the software list. ICEknight contributed a cassette software list for the Timex NTSC variants of the Sinclair home computers. There are some nice emulation improvements for the Luxor ABC family of computers, with the ABC 802 now considered working.
Other additions include discrete audio emulation for Midway’s Gun Fight, voice output for Filetto, support for configurable Toshiba Pasopia PAC2 slot devices, more vgmplay features, and lots more Capcom CPS mappers implemented according to equations from dumped PALs. This release also cleans up and simplifies ROM loading. For the most part things should work as well as or better than they did before, but MAME will no longer find loose CHD files in top-level media directories. This is intentional – it’s unwieldy with the number of supported systems.
As usual, you can get the source and 64-bit Windows binary packages from the download page. This will be the last month where we use this format for the release notes – with the increase in monthly development activity, it’s becoming impractical to keep up.

MAME Testers Bugs Fixed

New working machines

New working clones

Machines promoted to working

Clones promoted to working

New machines marked as NOT_WORKING

New clones marked as NOT_WORKING

New working software list additions

Software list items promoted to working

New NOT_WORKING software list additions

Source Changes

submitted by cuavas to emulation [link] [comments]

ResultsFileName = 0×0 empty char array Why? Where are my results?

Edit: Turns out I was missing a needed toolbox.
Hello,
I am not getting any errors and I do not understand why I am not getting any output. I am trying to batch process a large number of ecg signals. Below is my code and the two relevant functions. Any help greatly appreciated. I am very new.
d = importSections("Dx_sections.csv"); % set the number of recordings n = height(d); % settings HRVparams = InitializeHRVparams('test_physionet') for ii = 1:n % Import waveform (ECG) [record, signals] = read_edf(strcat(d.PID(ii), '/baseline.edf')); myecg = record.ECG; Ann = []; [HRVout, ResultsFileName] = Main_HRV_Analysis(myecg,'','ECGWaveform',HRVparams) end function [HRVout, ResultsFileName ] = Main_HRV_Analysis(InputSig,t,InputFormat,HRVparams,subID,ann,sqi,varargin) % ====== HRV Toolbox for PhysioNet Cardiovascular Signal Toolbox ========= % % Main_HRV_Analysis(InputSig,t,InputFormat,HRVparams,subID,ann,sqi,varargin) % OVERVIEW: % % INPUT: % InputSig - Vector containing RR intervals data (in seconds) % or ECG/PPG waveform % t - Time indices of the rr interval data (seconds) or % leave empty for ECG/PPG input % InputFormat - String that specifiy if the input vector is: % 'RRIntervals' for RR interval data % 'ECGWaveform' for ECG waveform % 'PPGWaveform' for PPG signal % HRVparams - struct of settings for hrv_toolbox analysis that can % be obtained using InitializeHRVparams.m function % HRVparams = InitializeHRVparams(); % % % OPTIONAL INPUTS: % subID - (optional) string to identify current subject % ann - (optional) annotations of the RR data at each point % indicating the type of the beat % sqi - (optional) Signal Quality Index; Requires a % matrix with at least two columns. Column 1 % should be timestamps of each sqi measure, and % Column 2 should be SQI on a scale from 0 to 1. % Use InputSig, Type pairs for additional signals such as ABP % or PPG signal. The input signal must be a vector containing % signal waveform and the Type: 'ABP' and\or 'PPG'. % % OUTPUS: % results - HRV time and frequency domain metrics as well % as AC and DC, SDANN and SDNNi % ResultsFileName - Name of the file containing the results % % NOTE: before running this script review and modifiy the parameters % in "initialize_HRVparams.m" file accordingly with the specific % of the new project (see the readme.txt file for further details) % EXAMPLES % - rr interval input % Main_HRV_Analysis(RR,t,'RRIntervals',HRVparams) % - ECG wavefrom input % Main_HRV_Analysis(ECGsig,t,'ECGWavefrom',HRVparams,'101') % - ECG waveform and also ABP and PPG waveforms % Main_HRV_Analysis(ECGsig,t,'ECGWaveform',HRVparams,[],[],[], abpSig, % 'ABP', ppgSig, 'PPG') % % DEPENDENCIES & LIBRARIES: % HRV Toolbox for PhysioNet Cardiovascular Signal Toolbox % https://github.com/cliffordlab/PhysioNet-Cardiovascular-Signal-Toolbox % % REFERENCE: % Vest et al. "An Open Source Benchmarked HRV Toolbox for Cardiovascular % Waveform and Interval Analysis" Physiological Measurement (In Press), 2018. % % REPO: % https://github.com/cliffordlab/PhysioNet-Cardiovascular-Signal-Toolbox % ORIGINAL SOURCE AND AUTHORS: % This script written by Giulia Da Poian % Dependent scripts written by various authors % (see functions for details) % COPYRIGHT (C) 2018 % LICENSE: % This software is offered freely and without warranty under % the GNU (v3 or later) public license. See license file for % more information %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% if nargin < 4 error('Wrong number of input arguments') end if nargin < 5 subID = '0000'; end if nargin < 6 ann = []; end if nargin < 7 sqi = []; end if length(varargin) == 1 || length(varargin) == 3 error('Incomplete Signal-Type pair') elseif length(varargin) == 2 extraSigType = varargin(2); extraSig = varargin{1}; elseif length(varargin) == 4 extraSigType = [varargin(2) varargin(4)]; extraSig = [varargin{1} varargin{3}]; end if isa(subID,'cell'); subID = string(subID); end % Control on signal length if (strcmp(InputFormat, 'ECGWaveform') && length(InputSig)/HRVparams.Fs< HRVparams.windowlength) ... || (strcmp(InputFormat, 'PPGWaveform') && length(InputSig)/HRVparams.Fs 300 s VLF = [0.0033 .04]; % Requires at least 300 s window LF = [.04 .15]; % Requires at least 25 s window HF = [0.15 0.4]; % Requires at least 7 s window HRVparams.freq.limits = [ULF; VLF; LF; HF]; HRVparams.freq.zero_mean = 1; % Default: 1, Option for subtracting the mean from the input data HRVparams.freq.method = 'lomb'; % Default: 'lomb' % Options: 'lomb', 'burg', 'fft', 'welch' HRVparams.freq.plot_on = 0; % The following settings are for debugging spectral analysis methods HRVparams.freq.debug_sine = 0; % Default: 0, Adds sine wave to tachogram for debugging HRVparams.freq.debug_freq = 0.15; % Default: 0.15 HRVparams.freq.debug_weight = .03; % Default: 0.03 % Lomb: HRVparams.freq.normalize_lomb = 0; % Default: 0 % 1 = Normalizes Lomb Periodogram, % 0 = Doesn't normalize % Burg: (not recommended) HRVparams.freq.burg_poles = 15; % Default: 15, Number of coefficients % for spectral estimation using the Burg % method (not recommended) % The following settings are only used when the user specifies spectral % estimation methods that use resampling : 'welch','fft', 'burg' HRVparams.freq.resampling_freq = 7; % Default: 7, Hz HRVparams.freq.resample_interp_method = 'cub'; % Default: 'cub' % 'cub' = cublic spline method % 'lin' = linear spline method HRVparams.freq.resampled_burg_poles = 100; % Default: 100 %% 11. SDANN and SDNNI Analysis Settings HRVparams.sd.on = 1; % Default: 1, SD analysis 1=On or 0=Off HRVparams.sd.segmentlength = 300; % Default: 300, windows length in seconds %% 12. PRSA Analysis Settings HRVparams.prsa.on = 1; % Default: 1, PRSA Analysis 1=On or 0=Off HRVparams.prsa.win_length = 30; % Default: 30, The length of the PRSA signal % before and after the anchor points % (the resulting PRSA has length 2*L) HRVparams.prsa.thresh_per = 20; % Default: 20%, Percent difference that one beat can % differ from the next in the prsa code HRVparams.prsa.plot_results = 0; % Default: 0 HRVparams.prsa.scale = 2; % Default: 2, scale parameter for wavelet analysis (to compute AC and DC) %% 13. Peak Detection Settings % The following settings are for jqrs.m HRVparams.PeakDetect.REF_PERIOD = 0.250; % Default: 0.25 (should be 0.15 for FECG), refractory period in sec between two R-peaks HRVparams.PeakDetect.THRES = .6; % Default: 0.6, Energy threshold of the detector HRVparams.PeakDetect.fid_vec = []; % Default: [], If some subsegments should not be used for finding the optimal % threshold of the P&T then input the indices of the corresponding points here HRVparams.PeakDetect.SIGN_FORCE = []; % Default: [], Force sign of peaks (positive value/negative value) HRVparams.PeakDetect.debug = 0; % Default: 0 HRVparams.PeakDetect.ecgType = 'MECG'; % Default : MECG, options (adult MECG) or featl ECG (fECG) HRVparams.PeakDetect.windows = 15; % Befautl: 15,(in seconds) size of the window onto which to perform QRS detection %% 14. Entropy Settings % Multiscale Entropy HRVparams.MSE.on = 1; % Default: 1, MSE Analysis 1=On or 0=Off HRVparams.MSE.windowlength = []; % Default: [], windows size in seconds, default perform MSE on the entire signal HRVparams.MSE.increment = []; % Default: [], window increment HRVparams.MSE.RadiusOfSimilarity = 0.15; % Default: 0.15, Radius of similarity (% of std) HRVparams.MSE.patternLength = 2; % Default: 2, pattern length HRVparams.MSE.maxCoarseGrainings = 20; % Default: 20, Maximum number of coarse-grainings % SampEn an ApEn HRVparams.Entropy.on = 1; % Default: 1, MSE Analysis 1=On or 0=Off HRVparams.Entropy.RadiusOfSimilarity = 0.15; % Default: 0.15, Radius of similarity (% of std) HRVparams.Entropy.patternLength = 2; % Default: 2, pattern length %% 15. DFA Settings HRVparams.DFA.on = 1; % Default: 1, DFA Analysis 1=On or 0=Off HRVparams.DFA.windowlength = []; % Default [], windows size in seconds, default perform DFA on the entair signal HRVparams.DFA.increment = []; % Default: [], window increment HRVparams.DFA.minBoxSize = 4 ; % Default: 4, Smallest box width HRVparams.DFA.maxBoxSize = []; % Largest box width (default in DFA code: signal length/4) HRVparams.DFA.midBoxSize = 16; % Medium time scale box width (default in DFA code: 16) %% 16. Poincaré plot HRVparams.poincare.on = 1; % Default: 1, Poincare Analysis 1=On or 0=Off %% 17. Heart Rate Turbulence (HRT) - Settings HRVparams.HRT.on = 1; % Default: 1, HRT Analysis 1=On or 0=Off HRVparams.HRT.BeatsBefore = 2; % Default: 2, # of beats before PVC HRVparams.HRT.BeatsAfter = 16; % Default: 16, # of beats after PVC and CP HRVparams.HRT.GraphOn = 0; % Default: 0, do not plot HRVparams.HRT.windowlength = 24; % Default 24h, windows size in hours HRVparams.HRT.increment = 24; % Default 24h, sliding window increment in hours HRVparams.HRT.filterMethod = 'mean5before'; % Default mean5before, HRT filtering option %% 18. Output Settings HRVparams.gen_figs = 0; % Generate figures HRVparams.save_figs = 0; % Save generated figures if HRVparams.save_figs == 1 HRVparams.gen_figs = 1; end % Format settings for HRV Outputs HRVparams.output.format = 'csv'; % 'csv' - creates csv file for output % 'mat' - creates .mat file for output HRVparams.output.separate = 0; % Default : 1 = separate files for each subject % 0 = all results in one file HRVparams.output.num_win = []; % Specify number of lowest hr windows returned % leave blank if all windows should be returned % Format settings for annotations generated HRVparams.output.ann_format = 'binary'; % 'binary' = binary annotation file generated % 'csv' = ASCII CSV file generated end 
submitted by MisuzBrisby to matlab [link] [comments]

MAME 0.221

MAME 0.221

Our fourth release of the year, MAME 0.221, is now ready. There are lots of interesting changes this time. We’ll start with some of the additions. There’s another load of TV games from JAKKS Pacific, Senario, Tech2Go and others. We’ve added another Panorama Screen Game & Watch title: this one features the lovable comic strip canine Snoopy. On the arcade side, we’ve got Great Bishi Bashi Champ and Anime Champ (both from Konami), Goori Goori (Unico), the prototype Galun.Pa! (Capcom CPS), a censored German version of Gun.Smoke, a Japanese location test version of DoDonPachi Dai-Ou-Jou, and more bootlegs of Cadillacs and Dinosaurs, Final Fight, Galaxian, Pang! 3 and Warriors of Fate.
In computer emulation, we’re proud to present another working UNIX workstation: the MIPS R3000 version of Sony’s NEWS family. NEWS was never widespread outside Japan, so it’s very exciting to see this running. F.Ulivi has added support for the Swedish/Finnish and German versions of the HP 86B, and added two service ROMs to the software list. ICEknight contributed a cassette software list for the Timex NTSC variants of the Sinclair home computers. There are some nice emulation improvements for the Luxor ABC family of computers, with the ABC 802 now considered working.
Other additions include discrete audio emulation for Midway’s Gun Fight, voice output for Filetto, support for configurable Toshiba Pasopia PAC2 slot devices, more vgmplay features, and lots more Capcom CPS mappers implemented according to equations from dumped PALs. This release also cleans up and simplifies ROM loading. For the most part things should work as well as or better than they did before, but MAME will no longer find loose CHD files in top-level media directories. This is intentional – it’s unwieldy with the number of supported systems.
As usual, you can get the source and 64-bit Windows binary packages from the download page. This will be the last month where we use this format for the release notes – with the increase in monthly development activity, it’s becoming impractical to keep up.

MAME Testers Bugs Fixed

New working machines

New working clones

Machines promoted to working

Clones promoted to working

New machines marked as NOT_WORKING

New clones marked as NOT_WORKING

New working software list additions

Software list items promoted to working

New NOT_WORKING software list additions

Source Changes

submitted by cuavas to MAME [link] [comments]

MAME 0.222

MAME 0.222

MAME 0.222, the product of our May/June development cycle, is ready today, and it’s a very exciting release. There are lots of bug fixes, including some long-standing issues with classics like Bosconian and Gaplus, and missing pan/zoom effects in games on Seta hardware. Two more Nintendo LCD games are supported: the Panorama Screen version of Popeye, and the two-player Donkey Kong 3 Micro Vs. System. New versions of supported games include a review copy of DonPachi that allows the game to be paused for photography, and a version of the adult Qix game Gals Panic for the Taiwanese market.
Other advancements on the arcade side include audio circuitry emulation for 280-ZZZAP, and protection microcontroller emulation for Kick and Run and Captain Silver.
The GRiD Compass series were possibly the first rugged computers in the clamshell form factor, possibly best known for their use on NASA space shuttle missions in the 1980s. The initial model, the Compass 1101, is now usable in MAME. There are lots of improvements to the Tandy Color Computer drivers in this release, with better cartridge support being a theme. Acorn BBC series drivers now support Solidisk file system ROMs. Writing to IMD floppy images (popular for CP/M computers) is now supported, and a critical bug affecting writes to HFE disk images has been fixed. Software list additions include a collection of CDs for the SGI MIPS workstations.
There are several updates to Apple II emulation this month, including support for several accelerators, a new IWM floppy controller core, and support for using two memory cards simultaneously on the CFFA2. As usual, we’ve added the latest original software dumps and clean cracks to the software lists, including lots of educational titles.
Finally, the memory system has been optimised, yielding performance improvements in all emulated systems, you no longer need to avoid non-ASCII characters in paths when using the chdman tool, and jedutil supports more devices.
There were too many HyperScan RFID cards added to the software list to itemise them all here. You can read about all the updates in the whatsnew.txt file, or get the source and 64-bit Windows binary packages from the download page.

MAME Testers Bugs Fixed

New working machines

New working clones

Machines promoted to working

Clones promoted to working

New machines marked as NOT_WORKING

New clones marked as NOT_WORKING

New working software list additions

Software list items promoted to working

New NOT_WORKING software list additions

submitted by cuavas to emulation [link] [comments]

Ambrosia and Registration

Now that Ambrosia is gone, new registrations are no longer possible, and due to their expiring codes, using legitimate license keys has become difficult. We may hope to see a few of their games revived in the future but at present, only the original releases are available. Perhaps this case study on Ambrosia's registration algorithms will be useful to some.

The Old System

In their earliest days, ASW didn't require registration, but they eventually began locking core features away behind codes. All of their classic titles use the original algorithm by Andrew Welch.
Given a licensee name, number of copies, and game name, the code generator runs through two loops. The first loop iterates over each letter of the capitalized licensee name, adding the ASCII representation of that letter with the number of copies and then rotating the resulting bits. The second loop repeats that operation, only using the game's name instead of the license holder's name.
Beginning with Mars Rising, later games added a step to these loops: XOR the current code with the common hex string $DEADBEEF. However, the rest of the algorithm remained essentially unchanged.
The resulting 32 bits are converted into a text registration code by adding the ASCII offset of $41 to each hex digit. This maps the 32-bit string into 8 characters, but due to the limit of a hex digit to only encode 16 values, codes only contain letters from the first 16 of the alphabet.
The following chart shows an example using a well-known hacked code for Slithereens.
 Iteration 1 ('A' in ANONYMOUS) Name: Anonymous Code = $0 + $41 Number: 100 (hex: $64) -> << 6 ... -> Code = $FD53 FFA0 Game: Slithereens + $64 ^ $DEAD BEEF >> 1 Add $41 to each digit: Registration -> $41 + $F = $50 = P -> Reverse string -> ------------ $41 + $D = $4E = N | AKPPDFNP | ... ------------ 
Here is a Python implementation of the v1 system: aswreg_v1.py
Once you have the bitstring module installed via sudo pip install bitstring, you can test the output yourself with python aswreg_v1.py "Anonymous" 100 "Slithereens".

The New System

As Ambrosia's Matt Slot explains, the old system continued to allow a lot of piracy, so in the early 2000's they decided to switch to a more challenging registration system. This new method was based on polynomial hashing and included a timestamp so that codes could be expired and renewed. Ambrosia now had better control over code distribution, but they assumed their renewal server would never be shut down...
They also took more aggressive steps to reduce key sharing. The registration app checks against a list of blacklisted codes, and if found to be using one, the number of licenses is internally perturbed so that subsequent calculations fail. To combat tampering, your own information can get locally blacklisted in a similar manner if too many failed attempts occur, at least until the license file is deleted. Furthermore, the app attempts to verify the system time via a remote time server to minimize registration by changing the computer's clock.
You can disable the internet connection, set the clock back, and enter codes. There's also a renewal bot for EV: Nova. But let us look at the algorithm more closely.

64-bit Codes

The first noticeable difference is that registration codes in v2 are now 12 digits, containing both letters and numbers. This is due to a move from a 32-bit internal code to a 64-bit one. Rather than add an ASCII offset to hex digits, every letter or number in a new registration code has a direct mapping to a chunk of 5 bits. Using 5 bits per digit supports up to 32 values, or almost all letters of the alphabet and digits up to 9 (O, I, 0, and 1 were excluded given their visual similarities).
The resulting 64 bits (really only 60 because the upper 4 are unused: 12 digits * 5 bits each = 60) are a combination of two other hashes XOR'd together. This is a notable change from v1 because it only used the registration code to verify against the hashing algorithm. Only the licensee name, number of copies, and game name were really used. In v2, the registration code is itself a hash which contains important information like a code's timestamp.

Two Hashes

To extract such information from the registration code, we must reverse the XOR operation and split out the two hashes which were combined. Fortunately, XOR is reversible, and we can compute one of the hashes. The first hash, which I'll call the userkey, is actually quite similar to v1's algorithm. It loops through the licensee name, adding the ASCII value, number of copies, and shifting bits. This is repeated with the game name. An important change is including multiplication by a factor based on the string size.
The second hash, which I'll call the basekey, is the secret sauce of v2; it's what you pay Ambrosia to generate when registering a product. It is not computed by the registration app, but there are several properties by which it must be validated.
The chart below visualizes the relationships among the various hashes, using the well-known "Barbara Kloeppel" code for EV: Nova.
 TEXTCODE: ------------------ | L4B5-9HJ5-P3NB | ------------------ HASH1 (userkey): | calculated from licensee name, | copies, and game name BINCODE: ---------------------- 5 bits per character, /-> | 0x0902f8932acce305 | plus factors & rotation / ---------------------- ---------------------- / | 0x0008ecc1c2ee5e00 | <-- XOR ---------------------- \ \ ---------------------- \-> | 0x090a1452e822bd05 | ---------------------- HASH2 (basekey): generated by Ambrosia, extracted via XOR 

The Basekey

The basekey is where we must handle timestamps and several validation checks. Consider the binary representation of the sample 0x090a1452e822bd05:
binary basekey (above) and indices for reference (below): 0000 1001 0000 1010 0001 0100 0101 0010 1110 1000 0010 0010 1011 1101 0000 0101 b0 b3 b7 b11 b15 b19 b23 b27 b31 b35 b39 b43 b47 b51 b55 b59 b63 

Timestamps

Timestamp are encoded as a single byte comprised of bits indexed at b56,51,42,37,28,23,14,9 from the basekey. In this example, the timestamp is 01100010 or 0x62 or 98.
The timestamp represents the number of fortnights that have passed since Christmas Day, 2000 Eastern time, modulo 256 to fit in one byte. For example, 98 fortnights places the code at approximately October 2004.
Stored as a single byte, there are 256 unique timestamps. This is 512 weeks or about 10 years. Yes, this means that a code's validity rotates approximately once every decade.
After the code's timestamp is read, it is subtracted from the current timestamp (generated from the system clock or network time server if available). The difference must be less than 2, so codes are valid for 4 weeks or about a month at a time.
Of note, Pillars of Garendall has a bug in which the modulo is not taken correctly, so the timestamp corresponding to 0xFF is valid without expiry.

Validity Check

The last three bits, b60-63, contain the sum of all other 3-bit chunks in the basekey, modulo 7. Without the correct number in these bits, the result will be considered invalid.
To this point, we have covered sufficient material to renew licenses. The timestamp can be changed, the last three bits updated, the result XOR'd with the userkey, and finally, the code converted from binary to text.

Factors for Basekey Generation

I was next curious about code generation. For the purposes of this write-up, I have not fully reverse engineered the basekey, only duplicated the aspects which are used for validation. This yields functional keys, just not genuine ones. If the authors of the EV: Nova renewal bot have fully reversed the algorithm, perhaps they will one day share the steps to genuine basekey creation.
One aspect validated by the registration app is that the licensee name, number, and game name can be modified to yield a set of base factors. These are then multiplied by some number and written into the basekey. We do not need the whole algorithm; we simply must check that the corresponding regions in the basekey are multiples of the appropriate factors.
The regions of note in the basekey are f1 = b5-9,47-51,33-37,19-23, f2 = b43-47,29-33,15-19,57-61, and f3 = b24-28,10-14,52-56,38-42. The top 5 bits and f3 are never actually checked, so they can be ignored.
Considering f1 and f2, the values in the sample basekey are 0x25DA and 0x1500, respectively. The base factors are 0x26 and 0x1C, which are multiples by 0xFF and 0xC0, respectively.
Rather than analyze the code in detail, I wrote a small script to translate over the disassembled PPC to Python wholesale. It is sufficient for generating keys to EV: Nova, using the perfectly-valid multiple of 1x, but I have found it fails for other v2 products.

Scripts

Here is a Python implementation for v2: aswreg_v2.py and aswreg_v2core.py
With bitstring installed, you can renew codes like python aswreg_v2.py renew "L4B5-9HJ5-P3NB" "Barbara Kloeppel" 1 "EV Nova" (just sample syntax, blacklisted codes will still fail in the app). There's also a function to check a code's timestamp with date or create a new license with generate.
As earlier cautioned, generating basekeys relies on code copied from disassembled PPC and will likely not work outside EV: Nova. In my tests with other v2 products, all essential parts of the algorithm remain the same, even the regions of the basekey which are checked as multiples of the factors. What differs is the actual calculation of base factors. Recall that these keys were created by Ambrosia outside the local registration system, so the only options are to copy the necessary chunks of code to make passable factors for each product or to fully reverse engineer the basekey algorithm. I've no doubt the factors are an easy computation once you know the algorithm, but code generation becomes less critical when renewal is an option for other games. I leave it to the authors of the Zeus renewal bot if they know how to find these factors more generally.
To renew codes for other games, keep in mind the name must be correct. For instance, Pillars of Garendall is called "Garendall" internally. You can find a game's name by typing a gibberish license in the registration app and seeing what file is created in Preferences. It should be of the form License.
Finally, a couple disclaimers: I have only tested with a handful of keys, so my interpretations and implementations may not be completely correct. YMMV. Furthermore, these code snippets are posted as an interesting case study about how a defunct company once chose to combat software piracy, not to promote piracy. Had Ambrosia remained operational, I'm sure we would have seen a v3 registration system or a move to online-based play as so many other games are doing today, but I hope this has been helpful for those who still wish to revisit their favorite Ambrosia classics.
submitted by asw_anon to evnova [link] [comments]

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ASCII, Hex, Base-64, Binary, and so on.

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