Introduction to Reaktor Core, Part I – ADSR - 1. DOWNLOAD AND INSTALL REAKTOR 6 DEMO
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Since any Reaktor project must use Primary as a method to connect to audio ins and outs, and since panel elements such as knobs and switches only exist in Primary, it is necessary to interface any Core code inside a larger primary structure. These modules behave very much like Primary macros, the difference being that the code contained within them is written in Core and not Primary.
Event Core Cells can only use event rate inputs and outputs. Audio Core Cells can receive both audio and event inputs, but can only use audio rate outputs, which can occasionally be rather frustrating when you want a cell that can receive audio and output events.
Visually, event inputs are marked red as in Primary, and audio inputs are marked black. Core cells can be easily inserted inside a primary structure the same way any other module or macro would be. While many tasks can be performed faster in Core than in Primary, there is some inefficiency caused by the need to translate from one to another.
Take, for example, the following structure which is not functionally useful, really, but just an illustration of how to use Core efficiently :. Here, a simple Audio Core Cell is repeated 4 times. However, in between each cell, there is a translation from Core to Primary, then the signal is immediately translated back to core. The result is that even this simple structure takes up 3. The takeaway from this is that translations from Core to Primary should be avoided as much as possible. If you can, it is best to contain all Core code for a project within a single cell.
Very briefly, it is important to cover the functional differences of audio and event inputs in Core. Event inputs are simple to understand — a new event is created when one arrives at the cell input.
Audio inputs, on the other hand, create a new value for every tick of the sample clock, regardless of whether a new value has arrived or not. In Reaktor, events happen in between the sample clocks. One of the great advantages of Core is that, once inside a core cell, audio and event signals can be treated identically.
Even though audio values and events are treated the same, Core nevertheless has a few signal types. The signal type that a module receives at an input or sends as an output is determined visually:.
Since audio signals tend to range from -1 to 1, floats are the default signal type, but you can change a module from float to integer in the FUNCTION tab of the properties. There is a tutorial on the integer type here.
Booleans and latches are more pre-defined and work only with a few types of modules. Only 5 modules use boolean signals, and only one of those five can receive a boolean as an input — the Router module.
Simply put, boolean signals are used to control which output of a Router the input gets sent to. In the following picture, the signal is routed to output 1 if A is greater than zero, and routed to output 2 otherwise:.
For example, if I want to read a stored value, add another value to it, and then store the value for later use, latches can help to control the order that the events happen in. Fortunately, there are only 29 Built-In Modules in Core. The Expert Macro and Standard Macro menus are made up entirely out of these 29 module types. Further, several of these types have a function that is quite easy to determine, such as the Add and Merge modules.
In fact, as you get used to looking at Core structures, many of the graphics on the Built-In Modules become more clear, and actually do a decent job of describing the function of the module. One of the most important step to take in Core is to learn to identify each of the Modules by sight. This tutorial has only scratched the surface of Core. There are many more topics to cover, such as arrays, event ordering, and more.
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Symphonic Production. Party Design. Audiozone Samples. Gold Class Audio. Tecknical Records. Baltic Audio. We are go in g to replace. Connect the mixer and the oscillator together and use their comb in ation to. We say Reaktor Core based, because although the chorus itself. Core structures cannot have their own control panels — the panels have to be.
If you look in side the chorus you can see the chorus core cell and the panel. Now we are about to learn a few th in gs about edit in g core cells. We are go in g. What you see now is a Reaktor Core structure. The three areas separated by. Whereas normal modules can move in all directions, the in puts and outputs. Try mov in g the FM in put below the PW in put:. However, they do not automatically shr in k, which can lead to. You can shr in k them back by right-click in g on the background and select in g.
In the above example, we used a MultiWave Osc module,. Chang in g both P and PM in puts to event mode should produce the largest. Switch the properties w in dow to the function page, if necessary, by click in g. Change it to event. Note how the large dot at the left of the in put module. Now click on the PM in put to select it, and change it to event mode, too. F in ally, double-click the structure background to return to the primary level.
In some cases such switch in g could even ru in the. In addition to cases in which port-type switch in g obviously does not make sense. Generally, port-type switch in g should work; hence. You have to. Disconnect in g is simple in Reaktor Core ,. For example, click on the in put port of. If you change your m in d, you can reactivate the outputs by click in g on either.
Of course, numerous f in e-tun in g adjustments can be made to core cells. Gett in g in to Reaktor Core. Core cells exist in two flavors: Event and Audio. Event core cells can receive. Audio core. As previously mentioned, event core cells are restricted to event process in g. Because clock sources are disabled in side them see the table above ,. You create new core cells by right-click in g on the background in a primary-level. We are go in g to build a new core cell from scratch in side the same One Osc.
We will be us in g the modified version of that ensemble. As you can see, in this ensemble we are modulat in g the filter at the P in put,. We are not us in g the FM version of the same.
Attention: we are go in g to in sert our first module in to a core structure right. Right-click in the normal area to br in g up the module creation menu:. The first submenu is called Built-In Module and provides access to the built in.
To delete it there are two. The other option is to select the module by click in g on it and press in g the. This is a 2-pole, state-variable filter and is similar to the one we are replac in g. To create it right-click in. This is. The first in put will be an audio-signal in put. The second in put is a little bit more complicated. As you can see, the second in put. That means frequency,. F module or in side our Reaktor Core.
Right-click in the background of the normal area and. As the name implies and the in fo text states , this module converts between. That should do it, but wait! Now that the conversion. Although this approach. If you remember our discussion about slow envelopes, you will. We also need. So first change the P in put to the event mode as described previously and. In fact, we could do that, but in Reaktor Core the. Add is considered a low-level module, and us in g it generally requires some.
For now, you. One other th in g we need to do is to give our core cell a name. If the Properties. Wow, looks nice except that the audio-signal in put is at the top of the core cell,. We could leave it.
The first th in g to do is go back in side and drag the audio-signal in put all the. You can open the Properties w in dow later by double-click in g.
The next th in g you should do is right-click on the top in put of the 2 Pole SV C. This is how your structure should.
Instead of a nasty look in g diagonal wire, we get two nice references, stat in g. The modules you f in d in. We will expla in event and logic signals a little. Audio signals are obviously signals which carry audio in formation. These in clude. Here is an example of a Reaktor Core filter module which you already know:. The upper in put of the filter is for the audio signal to be filtered and, therefore,.
The F and Res in puts are obviously control type. The outputs of the filter carry different k in ds of filtered audio, so all those. A s in e oscillator module, on the other hand, has only a s in gle control in put.
And if we take a look at the Rect LFO module, it has two control in puts — for. Some types of process in g, mix in g for example, make sense for both. In those cases, you will f in d versions. For example, there are audio mixers and control. OK because you are in tend in g to use an audio signal as a control signal. Also as you probably. The difference between audio, control, and event signals in Reaktor. Core term in ology is purely semantic, def in in g the mean in g of the signal rather.
There is not a one-to-one relationship between. Reaktor Core. An example of such signal would be an output of an. We are go in g to learn a little bit more about this concept while try in g to build. We will start by build in g a simple digital echo,. Start by creat in g an empty audio core cell; then go in side and set its name. The first module we are go in g to put in to the structure is a delay module.
We obviously need an audio in put and an audio output for our delay core cell. We also need an event in put for controll in g the delay time.
One th in g to. No problem, there is a conversion module available for that. So far, we only have a s in gle echo, and it would also be nice to hear the orig in al. To get the orig in al signal at the output we need to. Because we are mix in g audio signals here, we. Even better, we. We will connect the control x in put of the.
First we need to attenuate the delayed signal. Follow in g. Also, this amplifier will allow us to in vert the signal by us in g. We connect the amplitude control in put. Actually, depend in g on the version of the software and other conditions, the. The Z sign in dicates that a digital feedback has occurred. These amplifiers are. The signal at the second in put of this module will be attenuated accord in g to. The signal at the cha in in put is not attenuated. Such amplifiers can.
Build in g your first Reaktor Core macros. We will make it sound warmer by add in g two. Right-click on the background as select Built-In Module.
Double-click it to dive in side. You will see an empty structure, similar to the. These differences have to do with. The Latch and Bool C types of ports will be expla in ed much later in this manual. We are in terested now only in the first type,. There is also no difference between. Reaktor Core now. The first th in g we are go in g to do is name the macro, which. The rema in in g properties of the macro control various aspects of its appearance.
While you are free to experiment with rema in in g properties as you see fit,. We also advise. The mean in g of these parameters. The next th in g is to create a set of in puts and outputs for our Tape Delay. The upper in put will receive the audio in put, and the lower will receive the.
You may have noticed extra ports on the left side of the in put. A simple emulation of the saturation effect can be done easily by connect in g. Saturator is a k in d of signal shaper, so. The in put signal will now be saturated with in the range of — 1.
Actually, the. That might be surpris in g to you because you are probably. Well, this is not exactly the case in Reaktor Core. Now we are go in g to learn to do exactly the same, by specify in g a new default. Very easy. In addition, you should have the properties w in dow display in g the properties. The port on the left side of the in put.
That means that if the in put is. In our case, if the T in put of the Tape Delay macro is not. You can connect it to any other module in the. This is a parabolic LFO, which produces a signal similar in shape to a s in e,. Its F in put must receive a signal specify in g the oscillation.
Currently the LFO output signal varies in the range — Because we are deal in g with control signals here, we are go in g. A modulation amplitude of 0. Ultimately, we can mix the two control signals one from the T in put and one. Actually, we have a Cha in type of control mixer that is similar to the mixer we. As one last touch for our macro, we are go in g to change the buffer size for.
If you hold your. You might want to enhance it in various ways, for example, by provid in g. As an example of that, we are go in g to create a Reaktor Core cell. Start by. We need pitch control for both of the oscillators, and we are go in g to listen. Notice that we are mix in g the modulation signal with the P1 in put after a.
P2F converter so the modulation will take place in frequency scale. If you analyze the above structure from the po in t of view of control and audio. Notice, however, that we are misus in g the output of. As we said earlier, there are different mean in gs of the term event signal. A primary-level. When we were talk in g about audio, control, event, and logic signals in Reaktor. Core we were not really talk in g about different types of signals technically.
Rather we are talk in g about different. As we now know, a Reaktor primary-level event signal. We have already learned to feed primary-level event signals in to Reaktor Core. Event-mode in puts for an. There are also cases in which you would use an event core cell to process. Those modules are restricted to receiv in g events.
The first case is us in g an envelope in a core structure. As you can guess from. The top in put of the envelope is a gate in put, which works similarly to the gate.
For that we create an event in put for our core. This in put will translate the in com in g primary-level gate events in to the core. The S susta in level in put. The A, D, R in puts are different, however.
Unlike primary-level envelopes they. Although all in puts in the above structure are in event mode, the first in put. The look of this port is different from the others because it expects in teger. We can simply use another event in put, and the in com in g values will be. The above structure implements a k in d of pitch modulation effect. The effect. Rst in put is a true event signal and can be used for restart in g the LFO.
You can try it. Notice that the ports of this module are in teger type, just as was the RM in put. That is because, generally, logic signals carry only in teger. Here a Gate2L macro checks the in com in g gate signal and produces a true 1. We can use logic signals to do logical process in g.
The AND module outputs a true signal only if. In other words the output. The output of. The F in put def in es the rate of the gate repetitions, and the W in put def in es. The Rst in put restarts the LFO in response to in com in g.
It ensures the LFO is. The LFO output is converted in to. Most of the outputs of Reaktor Core modules produce values.
Produc in g a. The values are available to all modules whose in puts are connected. Time is not cont in uous in the digital world; it is discrete. Probably the most. The number of po in ts per second bears the famous.
Because we are in the digital world, the outputs of our modules cannot change. For one th in g, we do not. For another. In the picture above we can see changes of the output of our adder occurr in g. At the moment in time that the output changes. In the follow in g example, the upper left module has changed its output value. In response, the adder module will change. The adder would have still responded by generat in g.
As you have seen from the previous examples, an event occurr in g at an output. Those new events would be sensed by. Events in Reaktor Core are not the same as events on the Reaktor. Consider the situation in which the two modules on the left side in the previous.
This is one of the key features of the Reaktor Core event model—events can. In that situation, the events orig in at in g. Of course, in reality, the events are not produced simultaneously by the upperleft.
In the example above, the leftmost module is send in g an event, chang in g its. The event is sent simultaneously to both the in verter. In response to the in com in g event the. It is important to notice that. That means they. In general you can use the follow in g rule to figure out whether two events are.
All events orig in at in g from sent in response to the same event are simultaneous. All events orig in at in g from an arbitrary number of simultaneous. The last example shows the benefit of hav in g simultaneous events. In that case,. In longer structures, in the absence. In addition to sav in g CPU time, the concept of simultaneity leads to important. One might further conclude that, for. Here is an example, the digits show in g the order of module process in g:.
The above rules for process in g order cannot be applied if there is feedback. The problem of handl in g feedback loops, in clud in g the process in g order,. For the above structure, it is not possible to def in e whether, for example,. Event Inputs send core events to the in side of the structure in response.
Event Outputs send primary-level events to the outside of the structure in. Although core events. These are not core macros, but rather true Reaktor Core built- in modules. To in sert built- in modules in to core structures, right-click in the background.
Of course, in this particular case there is no benefit in us in g Const modules. Set the number of voices for the Reaktor in strument to 1,.
Create a Knob and a Meter and connect them to the in put and output of your. We will. How a Reaktor Core module processes an in com in g event is completely up. Normally a module would process the in com in g value in some. The most typical case of such process in g. The value in put the upper one will store the in com in g value to the in ternal. The clock in put will send the last stored value to the output in.
Because now we are discuss in g clock signals, not latches, examples of us in g. Because there are modules with clock in puts, it should be clear that some of. Some signals can even be produced for the sole purpose of be in g used. A sampl in g-rate clock is one example of a clock signal. It produces an event. The value of the signal has no mean in g,.
The most typical case of modules us in g OBC connections. The functionality of the Write module is to write a value that is in com in g at its.
The functionality of the Read module is to. The read value is sent to the output of the Read module. The above structure implements the functionality of the Latch macro in fact,. The M and S p in s of Read and. Write modules are p in s of Latch OBC type. The M p in is the master connection. The master in put of the. Therefore in this structure the Write. Notice that the connection in the middle from the. Therefore, in the two. The relative order of process in g of OBC connected modules is def in ed.
In both cases, the orig in al state of. Next, the event arrives at the Read module, work in g as a clock event. Here we have the opposite situation. First , the clock event arrives at the Read. Only after that does the. Indeed, the output value is always one step beh in d. For example, in the follow in g structure the relative order of the two read. That can be a potentially dangerous structure.
P in s of in compatible types cannot. As we are start in g to work with objects that have an in ternal state in case of. Read and Write, the shared memory of the objects is their in ternal state , it. For example if we are go in g to read a value from memory us in g a. Read module before anyth in g is written to it, what value will be read? Those questions are addressed by the in itialization mechanism of Reaktor Core. The in itialization of core structures is performed in the follow in g way:.
The in itialization sources in clude most of the modules. If a module is an in itialization event source, you will f in d in formation. Mostly in itialization sources are. Initially, all signal outputs and the in ternal state of Read-Write-Read cha in. Then an in itialization event is sent simultaneously from the clock source and.
Then the value is written in to. Lastly the adder module is processed,. As you remember, disconnected in puts are treated in Reaktor Core as. Above, an adder with one in put disconnected and one connected to a constant.
There can also be special mean in g for disconnected in puts that are not. The event accumulator module that we want to build now is go in g to have two. There is also go in g to be one output, which outputs the. We are go in g to build this module in the form of a core macro, which would. We are go in g to use Read. The module which you see on the left with an arrow po in t in g outwards is. In response to an in com in g event, the accumulator loop should take the current.
Note that the Read module is clocked by the in com in g event and, of course,. The above structure works in the sense that it accumulates in com in g values.
What is miss in g is reset functionality and. Because we are with in the Reaktor Core. In a Latch, the clock signal logically arrives later than the value signal. To achieve that we will. You have seen various ways of comb in in g two different signals in Reaktor Core ,. What has been miss in g is a. Merg in g is not add in g. Merg in g means that the result of the operation is the last.
To merge signals. Imag in e we have a Merge module with two in puts. The in itial output value. Now two events with values of 2 and 8 arrive simultaneously at both in puts. Events arriv in g simultaneously at the in puts of a Merge module are.
Still there is only one. In the above case this means that the event at the second in put will be processed. So, in order to achieve the desired reset functionality we need to override the. The simplest way is to connect. Now the reset event will be immediately sent to the Merge module, overrid in g. In the above structure, the value occurr in g at the Rst in put will be used as the.
So what we have to do is to send a zero. Send in g an event with a particular value in response to an in com in g event is.
As we have already described, the Latch module has a value in put top and. We need to connect the Rst in put to the clock in put. The last th in g we have to do is ensure the correct in itialization, which of course.
If the in itialization event is sent simultaneously from the In and Rst in puts. Therefore, zero will be written. It could be that the in itialization. So we need to do a last f in al modification to the.
Now, even if there was no event arriv in g at the Rst in put, the implicit zero. Now switch to the Panel and see the values in crement in g in steps of 1 each. Trial software allows the user to evaluate the software for a limited amount of time. After that trial period usually 15 to 90 days the user can decide whether to buy the software or not. Even though, most trial software products are only time-limited some also have feature limitations.
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