DSP.Erience

15/07/2026

Inbox for demos / testing
DSP.Erience ZENTUBE - Tube Harmonic Exciter

11/07/2026

02/07/2026

Hello. As we mentioned a few days ago, we are currently developing our first virtual processors—available in VST and standalone formats—based on analog emulations.

The DSP modeling behind these processors is incredibly robust. We aren't interested in creating simple waveforms or relying on commercial gimmicks; our goal is to build honest, transparent systems that faithfully recreate the tube circuitry used by today's high-end brands. No false promises or marketing hype.

However, the technical challenges are significant. First full, handling oversampling is a complex undertaking that has kept us busy running aliasing tests with advanced algorithms, as we aim to go far beyond the capabilities of 'juce::oversampling'. We are meticulously fine-tuning every detail to thoroughly evaluate the entire set of parameters and features.

The ultimate goal? To soon invest in the equivalent real-world tube systems, achieving such a perfect symbiosis that the gap between emulation and hardware becomes almost imperceptible.

Our first upcoming unit focuses on that signature analog warmth combined with exceptional transparency, designed specifically for mastering and processing critical tracks like vocals and guitars. Top-tier emulated components meeting real-world components of the highest quality. No hype, just authentic plugin/hardware stuff!

18/06/2026

Developing the brand's first plugin, specializing in valve emulation for mastering equipment and audio/music signal control. Stay tuned 🧐

24/05/2026

PCB Layout: The Hidden Factor Behind Reliable Electronics
Two PCBs can use the same components and schematic — but layout quality determines which one performs reliably in the real world.
✅ Clean grounding
✅ Proper decoupling
✅ Short return paths
✅ Optimized component placement
Poor layout decisions often result in EMI, unstable signals, voltage noise, and system failures.
In hardware design, performance is not only defined by components — it’s defined by layout discipline.

16/05/2026

🚨 PIC16F13276 Curiosity Nano

* Arquitectura RISC con entrada de reloj de DC–32 MHz y voltaje de alimentación de 1.8–5.5 V
* Hasta 28 KB de memoria Flash de programa con hasta 2 KB de memoria SRAM de datos
* Rango de voltaje de operación: 1.8–5.5 V

+++ Bajo consumo de energía

* Modos Doze, Idle y Sleep
* Deshabilitación de módulos periféricos (PMD)

+++ Un bloque de lógica configurable (CLB)

* Estructura interconectada que contiene 32 Elementos Lógicos Básicos (BLE)
* Cada BLE contiene:

* Una tabla de búsqueda (LUT) de 4 entradas
* Un flip-flop
* Programable esquemáticamente mediante MPLAB® Code Configurator
* Carga automática del CLB al iniciar (boot)

+++ Periféricos digitales

* Dos moduladores PWM de 16 bits
* Dos temporizadores de 16 bits (TMR1/3)
* Dos temporizadores de 8 bits (TMR2/4) con Hardware Limit Timer (HLT)
* Cuatro celdas lógicas configurables (CLC)
* CRC programable con escaneo de memoria
* Dos módulos EUSART (RS-232, RS-485 y LIN)
* Dos módulos MSSP (SPI/I2C), compatibles con SMBus
* Selección de pines periféricos (PPS)

+++ Periféricos analógicos

* Un convertidor analógico-digital de 10 bits de entrada simple con cómputo (ADCC)
* Un convertidor digital-analógico (DAC) de 10 bits
* Dos comparadores (CMP)
* Dos referencias de voltaje fijo (1.024 V, 2.048 V, 4.096 V) (FVR)
* Un controlador detector de alto/bajo voltaje (HLVD)