Genelec 8030C PM
The Genelec 8030C is a 50W LF/50W HF bi-amplified active monitor with 5" woofer and 3/4" metal dome tweeter built for small studios and edit suites featuring a 4dB SPL higher output than previous versions, power- and speaker-saving circuitry, and acoustically invisible cabinet design—Producer Grey finish (P), magnetically shielded (M).
The 8030C is a compact nearfield monitor with superior imaging and a wide and linear frequency response of 54Hz to 20kHz (+/-2.0 the come courtesy of Genelec’s proprietary Minimum Diffraction Enclosure (MDE) and Directivity Controlled Waveguide (DCW). The rounded corners and continuously curving form of the MDE enclosure blend seamlessly into the improved Directivity Control Waveguide (DCW), effectively reducing the comb filtering that results from edge diffraction, while providing a wide and stable sweet spot that enables you to move off axis without significant loss in the frequency response. Powered by a pair of 50-watt amplifiers to a 5" woofer and 3/4" hard-domed tweeter, the Genelec 8030C offers a 4dB SPL higher output than the 8030A and 8030B. In addition to low harmonic distortion, the 8030C also offers rear panel bass and treble tilt room response controls to tailor its response to your room.
Genelec 8030C—Just the Facts:
- Directivity Control Waveguide (DCW) technology for accurate on- and off-axis response
- Minimum Diffraction Enclosure (MDE) eliminates unwanted cabinet reflections
- Quiet reflex port design with high air flow
- Room-response EQ compensation
- Highly efficient class D amplifiers optimized for Genelec drivers
- Active crossovers
- Driver-protection circuitry
- Intelligent Signal Sensing (ISS) power-saving technology
- Iso-Pod decoupling and speaker orientation stand
- Versatile mounting options
- Producer Grey finish (P)
- Magnetically shielded (M)
Genelec 8030C—Behind the Grille
Directivity Control Waveguide (DCW) Technology
Genelec’s Directivity Control Waveguide shapes the emitted wavefront of direct radiating multi-way monitors in a way that allows predictable tailoring of the speaker’s dispersion pattern. DCW technology also minimizes early reflections, providing a wide, controlled listening area with accurate sound reproduction both on- and off-axis.
Another advantage of minimized early reflections and controlled constant directivity is that the frequency balance of the room’s reverberation field is essentially the same as the direct field from the monitors. As a result, the monitor’s performance is less affected by room acoustic characteristics.
The consistent off-axis frequency response of the waveguide enables engineers to move in and out of the sweet spot without losing perspective while working room.
DCW technology key benefits:
- Flat on- and off-axis response for wider usable listening area
- Increased direct-to-reflected sound ratio for reduced control room coloration
- Improved stereo and soundstage imaging
- Increased drive unit sensitivity up to 6dB
- Increased system maximum sound pressure level capacity
- Decreased drive unit distortion
- Reduced cabinet edge diffraction
- Reduced complete system distortion
Minimum Diffraction Enclosure (MDE™) Technology
Genelec’s highly innovative aluminum enclosure (MDE) improves the linearity of the frequency range and power response of free-standing monitors via rounded edges and gently curved front and sides optimized to match the acoustic properties of the drivers. In addition to achieving a remarkably flat frequency response, minimizing cabinet diffraction yields superb sound stage imaging.
Directivity is further improved by the waveguide being integrated into the MDE enclosure. Since the low-frequency limit for constant directivity is determined by the size of the waveguide, the larger the surface the better the control. Highly directional off-axis radiation yields a consistent listening window, which is critically important in multichannel monitoring. Controlled directivity also reduces possible first-order reflections on surfaces near the loudspeaker, such as walls, floors, ceilings, and studio furniture, which contributes to consistent audio reproduction in various acoustical environments.
High air-flow bass reflex port design
There are three methods to handle bass frequencies in small monitors, infinite baffle, or sealed cabinet, ported reflex, and transmission line (passive radiator designs are a subset of ported reflex speakers). Genelec’s choice for vented, or reflex, enclosures dates back to the first Genelec product in 1978. Since then Genelec has refined and improved their designs to increase low-frequency extension and sound pressure level capability to provide outstanding bass articulation and definition.
The downside of ported designs is that turbulence in the ports due to extreme air pressure from the driver excursions can cause chuffing noise in the ports, and/or interfere with frequencies higher up in the spectrum. To minimize air speed and turbulence, the cross-sectional area of the vent should be large. This, in turn, means that the vent tube has to be long, which presents quite a design challenge. Genelec’s solution is a long, curved tube that maximizes airflow so deep bass can be reproduced without compression. The reflex tube terminates with a wide flare located on the rear of the enclosure minimizing port noise and providing excellent bass articulation.
The curvature of the tube has also been carefully designed to minimize any audible noise, compression, or distortion. The inner end of the tube has proper resistive termination to minimize audible chuffing noise and air turbulence. Proper reflex port design allows also to significantly reduce the woofer’s displacement, improving the linear low-frequency output capacity.
PAD Pro tech note: For small cabinets to handle bass frequencies lower than the laws of physics would allow, the ported or reflex is the easiest design from a manufacturing standpoint to achieve a deep bass response. It takes advantage of the cabinet’s resonance and in essence feeds sound coming from the rear of the speaker through a tube connected to the back of the cabinet into ports, which are usually on the front panel. The length and diameter of the tube are precisely calculated for the desired low-frequency response. The trick is to make sure the sound coming from the port is in phase with the speaker, which reinforces the low frequencies of the monitor. It’s important to note that while this technique does provide a better bass response in small cabinets, it’s primarily a psychoacoustic effect. The addition of a subwoofer enables smaller drivers to handle midrange frequencies while bass frequencies are directed to a larger dedicated bass driver.
Intelligent Signal Sensing function
Genelec’s Intelligent Signal Sensing (ISS) is a power-saving feature that prolongs the service life of the monitor. ISS reduces power consumption to less than 0.5 watts by automatically switching the active monitor to standby when no audio signal has been detected for some time. When playback begins, the mode indicator light on the loudspeaker lights up and the playback resumes after a slight delay (<2 seconds).
The protection circuitry prevents driver failure by detecting signal levels and responding accordingly. In the case of sudden peaks or levels that are too high for long periods, the protection circuitry reduces signal level automatically. This feature does not affect the sound quality in any way when working within the specifications of the loudspeaker, but only prevents inappropriate input signals from breaking the loudspeaker.
Protection circuitry features and benefits:
- Reduces the output level when required (e.g. when driver voice coil temperature reaches the safe limit), which highly improves system reliability
- Appropriate protection circuitry design for each loudspeaker and subwoofer maximizes system output level
Room compensation controls
Each room changes the monitor’s response in a unique way, e.g. reflective vs. damped rooms, or placement against a wall vs. on a stand away from the walls. All Genelec loudspeaker systems feature room response adjustments to compensate for the room influences and retrieve a flat frequency response at the listening position. Frequency response can be adjusted to match the acoustic environment by setting the tone control switches on the rear panel of all Genelec monitors.
Optimized amplifiers with active crossover
In a typical 2-way loudspeaker system, the active crossover needs two power amplifiers; one for the woofer and one for the tweeter. Electronic crossovers split the audio signal into separate frequency bands that can be separately routed to individual power amplifiers optimized for the frequency band of their respective transducers.
The power amplifiers are connected directly to the drivers of an active loudspeaker, resulting in the power amplifier’s load becoming much simpler. Each driver-specific power amplifier has only a limited frequency range to amplify (the power amplifier is placed after the active crossover), which adds to the ease of design.
The active design principle offers multiple benefits:
- The power amplifiers are directly connected to the speaker drivers, maximizing the control exerted by the power amplifier’s damping on the driver’s voice coil, reducing the consequences of dynamic changes in the driver electrical characteristics. This may improve the transient response of the system
- There is a reduction in the power amplifier output requirement. With no energy lost in the passive crossover filter components, the amplifier power output requirements are reduced considerably (by up to 1/2 in some cases) without any reduction in the acoustic power output of the loudspeaker system. This can reduce costs and increase audio quality and system reliability
- No loss between amplifier and driver units results in maximum acoustic efficiency
- Active technology can achieve superior sound output vs. size vs. low-frequency cut-off performance
- All loudspeakers are delivered as a factory aligned system (amplifiers, crossover electronics, and enclosure-driver systems)
Often workstation furniture has equipment racks whose top surfaces double as speaker stands. While this may be a convenient option, placing speakers on wooden surfaces or console meter bridges has side effects detrimental to accurate and effective monitoring. In such a scenario, aiming the loudspeaker axis towards the listener rarely occurs, and sympathetic vibrations (which are not very sympathetic to bass) propagate from the loudspeaker to the surface. Also, first-order reflections on the surface cause comb filtering and subsequently ripples in the frequency response.
To solve these very common problems, Genelec designed the Iso-Pod Isolation Positioner/De-coupler. Made from special lossy rubber-like material to de-couple the speaker from a surface, it has four shallow feet and is firmly attached to the enclosure so that it can be slid along the curved bottom or side surface to allow for a ±15° tilt of the loudspeaker. The loudspeaker’s acoustical axis can then be pointed precisely towards the listener. The vibration isolation and damping properties reduce midrange coloration caused by unwanted vibration transmitted to supporting surfaces.
Versatile mounting options
On the base of the 8030 is a 3/8" UNC threaded hole which can accommodate a standard microphone stand. On the rear there are two M6x10 mm threaded holes for an Omni-mount® size 20.5 bracket.
The Genelec 8030C is a powerful compact monitor that can fill a small project studio, edit suite, or home theater with high-quality audio reproduction. For more information, call or chat online with your PAD Studio Specialist today.
- Lower cut-off frequency, –6dB: ≤ 47Hz
- Upper cut-off frequency, –6dB: ≥ 25kHz
- Accuracy of frequency response: 54Hz – 20kHz (± 2.5dB)
- Maximum short term sine wave acoustic output on axis in half space, averaged from 100Hz to 3kHz: @ 1 m > 104dB SPL
- Maximum long term RMS acoustic output in same
- conditions with IEC weighted noise (limited by driver unit protection circuit): @ 1 m > 96dB
- Maximum peak acoustic output per pair @ 1 m distance with music material: >110dB
- Self generated noise level in free field @ 1 m on axis: ≤ 5dB (A-weighted)
- Harmonic distortion at 85dB SPL @ 1 m on axis: Freq: 50-100Hz < 2%; >100Hz < 0.5%
- Bass driver: 5" (130 mm) cone
- Treble 3/4" (19 mm) metal dome
- Connector: Input: XLR female, balanced 10k ohm, pin 1 gnd, pin 2 +, pin 3 -
- Input level for 100dB SPL output at 1 m: -6dBu
- Input sensitivity control range relative to max output: -12dB (constantly variable)
- Crossover frequency, Bass/Treble: 3.0kHz
- Treble Tilt control operating range: 0 to –2dB @ 15kHz
- Bass Roll-Off control: –4dB step @ 55Hz
- Bass Tilt control operating range in –2 dB steps: 0 to –6dB @ 100Hz
- Desktop control: -4dB @ 160Hz
The ‘CAL’ position is with all tone controls set to “off” and the input sensitivity control to maximum (fully clockwise)
- Bass amplifier output power: 50W
- Treble amplifier output power: 50W
- (Long term output power is limited by driver unit protection circuitry)
- Amplifier system distortion at nominal output: THD < 0.05%
- Mains voltage: 100-240 VAC 50-60Hz
- Voltage operating range: ±10%
- Idle: 3W
- Standby in ISS mode <0.5W;
- Full output: 60W
- Finish: Producer Grey
- Height with IsoPod stand: 11-1/4"
- Weight without IsoPod stand: 11-13/16"
- Width 7-7/16"
- Depth: 7"
- Weight: 11 lb. (5.0 kg