Pro-Ject MaiA DS Integrated Amplifier & JBL Studio 220 Bookshelf Speakers Hi-Fi System
As low as $1,199.00 Regular Price $2,398.00
Availability: Out of stock
As low as $1,199.00 Regular Price $2,398.00
Availability: Out of stock
On Sale for a limited time
Pro-Ject MaiA DS Integrated Amplifier & JBL Studio 220 Bookshelf Speakers Hi-Fi System.
Pro-Ject MaiA DS Stereo Integrated Amplifier features all digital and 9 source devices that can be connected simultaneously. The robust metal casing is elegant and effectively protects against outside interference and unwanted noise. MaiA DS is available with a silver or black front panel.
JBL Studio 220 4-Inch 2-Way Bookshelf Monitor Speakers incorporates a 1" CMMD Lite dome tweeter and a 4" PolyPlas woofer and delivers big sound for music and movies. With a recommended power handling of 20 - 125W per speaker, the JBL Studio 220 is compatible with a wide variety of amplifiers and music types.
| Warranty | Australian Manufacturer Warranty |
|---|
| Power Amplifier Speaker Channels | Stereo |
|---|---|
| Frequency Response | 20 Hz - 20 kHz |
| Watts RMS per Channel (6 Ω) | 60 Watts |
| Watts RMS per Channel (8 Ω) | 40 Watts |
| Total Harmonic Distortion (THD) | < 0.07% |
| Input Impedance | 50 kΩ (Line Level) | 47 kΩ / 100 Ω (Phono) |
| Input Sensitivity | 350 mV (Line Level) |
| Pieces in System | 2 |
|---|---|
| Speaker Type | Bookshelf Speaker |
| Enclosure type | Slipstream Rear-Firing Bass Port |
| Frequency Response | 60 Hz - 22 kHz |
| Power | 125 Watts |
| Woofer Bass Driver Size (mm) | 102 mm |
| Tweeter | 25 mm |
| Impedance (Ω) | 8 Ω |
| Sensitivity | 86 dB |
| Optical Digital Inputs | 2 |
|---|---|
| Coaxial Digital Inputs | 1 |
| RCA Input | 3 |
| RCA Output | 1 |
| Headphone Output | Yes |
| USB B Ports | 1 |
| Phono Input | Yes |
| 12V Trigger | 1 / 1 |
| Multi-channel Preamp Output | 1 (Subwoofer) |
| Amplifier Dimension (H×W×D) | 72 x 206 x 150 mm |
|---|---|
| Bookshelf (H×W×D) | 262 x 168 x 180 mm (ea) |
A 12V trigger is a control mechanism used in audio/video systems and home automation setups. It involves sending a 12-volt electrical signal (often low voltage) to trigger specific actions in compatible devices. These triggers are commonly used to coordinate the power state and actions of various components in a multimedia or home theatre system. Here's how it generally works:
Control Device (Transmitter): This device, such as an AV receiver, preamplifier, or home automation controller, generates a 12V trigger output signal.
Trigger Cable: A specialised cable with a 3.5mm mono jack on each end is used to carry the 12V trigger signal. One end is connected to the control device's trigger output, and the other end is connected to the trigger input on the target device.
Target Device (Receiver): This device could be a power amplifier, motorised projector screen, motorised curtains, cooling system, or any other equipment that needs to be controlled based on trigger signals.
When the control device sends out the 12V trigger signal, the target device responds accordingly. Common scenarios include:
Power On: When the control device powers on, it sends a 12V trigger signal to the target device, causing it to turn on as well. This is especially useful for amplifiers, subwoofers, or other components that should be active when the system is in use.
Power Off: Conversely, when the control device is powered off, it can send a 12V trigger signal to the target device, prompting it to power down. This ensures that all components shut down in a synchronised manner.
Other Actions: 12V triggers can also be used for actions beyond powering on/off, such as activating ventilation systems, adjusting lighting, or even triggering motorised mechanisms like projector lifts.
This automation simplifies the user experience and ensures that devices work harmoniously without the need for manual intervention. However, it's essential to ensure compatibility between devices, as not all components support 12V trigger functionality. Some systems also offer multiple trigger outputs or inputs, allowing for more complex setups where a single control signal can manage several devices simultaneously.
Coaxial digital inputs are a type of connection found on audio and video equipment, such as audio receivers, soundbars, and home theater systems. These inputs are designed to carry digital audio signals using a coaxial cable. Coaxial digital inputs are commonly used for connecting devices that transmit digital audio, such as CD players, DVD players, Blu-ray players, gaming consoles, and some set-top boxes.
Here's how coaxial digital inputs work and some key points to know:
Digital Audio Transmission: Coaxial digital inputs transmit audio in a digital format, typically using a standard known as S/PDIF (Sony/Philips Digital Interface). This means that the audio signal remains in a digital state without being converted to analog until it reaches the destination device.
Cable Type: Coaxial digital inputs use a specific type of coaxial cable with RCA connectors. The cable has a central conductor surrounded by a layer of insulation and a metal shield. This design helps minimize electromagnetic interference and maintains the integrity of the digital signal.
Audio Quality: Coaxial digital inputs can carry high-quality digital audio signals, including formats like PCM (Pulse Code Modulation) and Dolby Digital.
Compatibility: Many audio and video devices support coaxial digital inputs and outputs. However, it's important to ensure that both the source device and the destination device have coaxial digital connectors.
Use Cases: Coaxial digital inputs are commonly used for connecting devices that do not have HDMI connections, especially older audio and video equipment. They can be used for sending audio from devices like DVD players, CD players, and gaming consoles to an audio receiver or sound system.
Cable Length: Like any cable connection, the length of the coaxial cable can impact signal quality. It's advisable to use high-quality cables and keep cable lengths as short as possible to minimize signal loss.
When connecting devices with coaxial digital outputs to devices with coaxial digital inputs, you will need a coaxial digital cable with appropriate connectors on each end.
It's worth noting that modern audio and video equipment often feature HDMI connections, which can carry both video and audio signals in a single cable. However, coaxial digital inputs remain relevant, especially for connecting legacy devices or for scenarios where HDMI is not available or practical.
Frequency response is a measure of how well an audio device (such as a speaker, headphone, microphone, or amplifier) reproduces sound across a range of frequencies. It is a crucial factor in determining the overall audio quality and the ability of a device to accurately reproduce different pitches and tones in audio content.
Frequency response is usually represented graphically, with frequency (measured in Hertz, or Hz) on the x-axis and amplitude (usually measured in decibels, or dB) on the y-axis. The graph, known as a frequency response curve, shows how the device responds to different frequencies. The flatter the curve, the more neutral and accurate the frequency response.
Here are some key points to understand about frequency response:
Flat Frequency Response: An ideal audio device would have a completely flat frequency response curve, meaning it reproduces all frequencies equally accurately. In practical terms, achieving a perfectly flat response is challenging, but high-quality audio equipment aims to keep the response as flat and consistent as possible.
Bass and Treble Response: The frequency response curve helps visualise how well a device reproduces both low-frequency (bass) and high-frequency (treble) sounds. The bass and treble regions of the curve provide insights into the device's ability to handle deep lows and crisp highs.
Roll-Off and Extremes: A device's frequency response curve might show a gradual roll-off at very low or very high frequencies. This is natural and often a design choice to prevent distortion or strain at extreme ends of the frequency spectrum.
Measurement Standards: Frequency response measurements are typically conducted under controlled laboratory conditions using specialised equipment. It's important to consider whether the measurements were taken in an anechoic chamber (where reflections are minimised) or in a real-world environment, as this can affect the results.
Human Perception: While a flat frequency response is desirable, human perception of sound can vary. Some listeners might prefer a slight boost in bass or treble frequencies, known as "voicing," for a more pleasing or exciting sound.
Room Acoustics: It's important to note that the frequency response of an audio device can be influenced by the acoustics of the room in which it is placed. Room reflections, resonances, and other factors can affect how sound is perceived.
Comparing Devices: When comparing the frequency response of different audio devices, it's important to consider the context, the intended use, and your personal preferences. A device with a flat response might not always be the best choice if you're looking for a specific sound signature.
Frequency response is just one aspect of audio quality, and a device's performance should be evaluated in conjunction with other factors such as distortion, sensitivity, and soundstage. When choosing audio equipment, it's a good idea to listen to demonstrations whenever possible and read reviews from reputable sources.
Input impedance is a key parameter in electronic circuits, particularly in the context of audio equipment and signal processing. It refers to the resistance that an input of a device presents to the source sending the signal. Input impedance plays a significant role in determining how well a device interfaces with the signal source and affects signal integrity, impedance matching, and overall performance.
Here's what you need to know about input impedance:
Impedance Matching: Input impedance is important for impedance matching, which involves ensuring that the output impedance of a signal source matches or is compatible with the input impedance of the receiving device. Impedance mismatch can lead to signal reflections, loss of signal power, and distortion.
Signal Loading: Input impedance affects how much the signal source is loaded or affected by the input circuit. A higher input impedance results in less loading and minimises the impact on the source signal. Conversely, a low input impedance can draw more current from the source and potentially alter the signal characteristics.
Voltage Division: In a voltage divider circuit, the input impedance interacts with the output impedance of the signal source to determine how the input voltage is divided between the two impedances.
Frequency Response: Input impedance can impact the frequency response of a circuit. If the input impedance varies with frequency, it can affect the way the circuit interacts with different signal frequencies.
Buffering: Sometimes, a device with a high input impedance is used as a buffer between a source and a load with different impedance characteristics. This helps to minimise the impact of impedance mismatch.
Microphone Preamps: Input impedance is particularly relevant in audio equipment such as microphone preamplifiers. The choice of input impedance can affect the way a microphone interacts with the preamp and influence the resulting sound quality.
Guitar Amplifiers: Input impedance is critical in guitar amplifiers as it affects the interaction between the guitar's pickups and the amplifier's input stage. Impedance mismatch can lead to loss of tone and dynamics.
Measuring Input Impedance: Input impedance is usually measured in ohms (Ω) and can vary depending on the specific device, circuit design, and the type of signal it's intended to receive.
When selecting and designing circuits, it's important to consider input impedance to ensure proper signal transfer, minimise distortion, and optimise the performance of the devices involved. Impedance matching and understanding the relationship between input and output impedances are key factors in achieving high-quality signal processing and accurate audio reproduction.
Input sensitivity, also known as sensitivity rating, is a specification used to describe how much input signal is required to produce a specified level of output from an audio device, such as an amplifier or a speaker. It is an important parameter to consider when matching different audio components to ensure proper signal levels and avoid issues like distortion or insufficient volume.
Here's what you need to know about input sensitivity:
Definition: Input sensitivity is typically expressed in decibels (dB) and indicates the level of input signal (usually voltage) required to produce a specific output level (often expressed in dB as well). It represents the efficiency of the device in converting the input signal into an amplified output signal.
Matching Components: Matching the input sensitivity of different audio components is important to ensure that the signals are compatible and that the system operates optimally. If the input sensitivity of an amplifier is much higher than that of the source device, it may result in over-amplification and distortion. If the sensitivity is too low, you might not get sufficient volume.
Amplifiers: In amplifiers, the input sensitivity is often specified as the level of input signal required to achieve a specific output power (e.g., 1 watt or full power). A higher sensitivity rating means the amplifier requires less input signal to reach a certain output level.
Sources: For source devices like CD players or media players, input sensitivity indicates the signal level they can provide to the next component in the chain. It helps you gauge whether the source can drive the amplifier or other devices effectively.
Speaker Matching: Input sensitivity is also relevant when matching speakers to amplifiers. If an amplifier's sensitivity is significantly different from a speaker's sensitivity, it can lead to imbalanced sound levels and affect the overall sound quality.
Impedance Consideration: Input sensitivity can interact with input impedance. Higher input impedance requires less input signal to achieve a specific output, and vice versa.
Volume Control: Input sensitivity can impact the setting of the volume control on your audio equipment. If you have mismatched sensitivities, you may need to adjust the volume levels accordingly.
Industry Standards: Manufacturers may specify input sensitivity differently, so it's important to understand the measurement methods and standards used for comparison.
When setting up an audio system, it's important to consider input sensitivity along with other factors such as impedance matching, output power, and overall system requirements. Properly matching input sensitivities helps ensure efficient signal flow, optimal performance, and a balanced and accurate audio experience.
Optical digital inputs, often referred to as "Toslink" or "S/PDIF" inputs, are a type of audio input commonly found on audio equipment such as AV receivers, soundbars, home theatre systems, and digital-to-analog converters (DACs). These inputs allow you to connect optical audio sources, such as TVs, gaming consoles, Blu-ray players, and CD players, to your audio device for high-quality digital audio transmission.
Key points about optical digital inputs:
Optical Cable: Optical digital inputs use a specific type of cable known as an optical or Toslink cable. This cable transmits audio signals using light pulses, making it immune to electromagnetic interference and providing a high-quality digital audio connection.
Audio Transmission: Optical digital inputs transmit audio signals in a digital format, ensuring a clean and accurate audio transfer without the potential for analog interference.
Audio Formats: Optical inputs can support various digital audio formats, including stereo PCM (Pulse Code Modulation), Dolby Digital, DTS, and more, depending on the capabilities of the connected devices.
Home Theatre Systems: Optical inputs are commonly used in home theatre setups to connect sources like TVs, Blu-ray players, and gaming consoles to AV receivers. This allows for high-quality audio playback through the home theatre speakers.
Soundbars and Speakers: Soundbars often feature optical inputs, allowing you to connect your TV or other audio sources directly to the soundbar for improved audio quality. Some powered speakers and audio systems also include optical inputs.
DACs and Audio Interfaces: Digital-to-analog converters (DACs) and audio interfaces often have optical inputs to convert digital audio signals into analog audio for playback through headphones or speakers.
Simple Setup: Optical connections are easy to set up. You plug one end of the optical cable into the optical output of your source device and the other end into the optical input of your audio device.
Dolby Digital and DTS: Optical connections are commonly used for transmitting Dolby Digital and DTS surround sound formats, making them ideal for home theatre applications.
Limitations: While optical connections provide high-quality audio transmission, they have some limitations compared to HDMI connections. For instance, they may not support certain advanced audio formats like Dolby Atmos.
Device Compatibility: When using optical digital inputs, it's important to ensure that both the source device (e.g., TV, Blu-ray player) and the destination device (e.g., AV receiver, soundbar) support the same audio formats and capabilities.
Signal Loss: Very long optical cables might experience signal loss due to the attenuation of the light pulses over distance.
Optical digital inputs offer a convenient and reliable way to connect your audio sources to compatible audio devices for high-quality digital audio transmission. They are particularly popular in home theatre setups and with devices that lack HDMI or other digital audio connections.
Power, in the context of audio and video systems, refers to the electrical energy needed to operate and drive various components within these systems. It plays a crucial role in determining the performance, volume, and overall quality of audio and video playback. The power requirements and considerations vary depending on the specific components and setups being used.
Here's how power is relevant in audio and video systems:
Audio Systems:
Amplifiers: Power amplifiers are responsible for increasing the amplitude of audio signals to drive speakers. The power output of an amplifier is typically measured in watts per channel (WPC). Higher-powered amplifiers can deliver louder and more dynamic audio, especially for large rooms or high-performance setups.
Speaker Power Handling: Speakers have power handling capabilities that indicate the maximum amount of power they can handle without distortion or damage. Matching the amplifier's power output to the speaker's power handling is important for optimal performance and longevity.
Efficiency and Distortion: Adequate power is essential to prevent underpowering, which can lead to distortion at higher volumes. Insufficient power can cause clipping and distortion, negatively impacting audio quality.
Subwoofers: Powered subwoofers require sufficient power to reproduce low-frequency sound accurately. Subwoofers often have their own built-in amplifiers to drive the dedicated low-frequency drivers.
Video Systems:
Display Devices: Video displays, such as TVs and projectors, require power to illuminate the screen and produce images. The power consumption of displays varies based on factors like screen size, technology (LCD, OLED, etc.), and brightness settings.
Projectors: High-powered projectors are needed for larger screens or brighter environments. Projector power is measured in lumens, indicating the brightness output.
AV Receivers: AV receivers act as central hubs for audio and video systems. They require power to process and amplify audio signals, as well as to handle video switching and processing tasks.
Media Players and Streaming Devices: Devices that play audio and video content, such as Blu-ray players, streaming devices, and gaming consoles, require power to operate and provide content to displays and audio systems.
Audio-Video Processors: Audio-video processors, often used in advanced home theatre setups, require power to handle complex audio decoding and video processing tasks.
Power Management: Efficient power management, including energy-saving modes and automatic power-off features, can help reduce energy consumption and extend the lifespan of components.
Power Distribution: Ensuring proper power distribution and surge protection is crucial to safeguarding equipment from power fluctuations, voltage spikes, and potential damage.
The power requirements for audio and video systems depend on the desired performance, room size, speaker sensitivity, and other factors. Adequate power ensures clean and accurate audio reproduction, clear video playback, and an overall enjoyable and immersive entertainment experience. When setting up audio and video systems, it's important to consider the power needs of each component and ensure proper power management for optimal performance and longevity.
There are several types of speakers designed for various audio applications, each with its own characteristics and purposes. Here are some common types of speakers:
Bookshelf Speakers: These compact speakers are designed to be placed on shelves, tables, or stands. They are often used in small to medium-sized rooms and provide balanced sound quality for music and home theatre setups.
Floorstanding Speakers (Tower Speakers): These larger speakers stand on the floor and typically consist of multiple drivers, offering powerful and full-range audio reproduction. They are ideal for larger rooms and audiophile setups.
Subwoofers: Subwoofers specialise in reproducing low-frequency sounds (bass). They are commonly used in home theatre systems and music setups to enhance the depth and impact of audio.
Soundbars: Soundbars are elongated speaker systems that provide improved audio compared to built-in TV speakers. They are designed to be placed below or above the TV and are popular for home theatre setups.
Centre Channel Speakers: These speakers are part of a home theatre system and are positioned above or below the TV. They primarily handle dialogue and center-panned audio, enhancing vocal clarity in movies and TV shows.
Surround Speakers: Surround speakers are used in home theatre setups to create a three-dimensional soundstage by placing them behind or to the sides of the listening area.
In-Wall and In-Ceiling Speakers: These speakers are mounted directly into the walls or ceilings of a room, providing a discreet and space-saving audio solution.
Outdoor Speakers: Designed to withstand weather conditions, outdoor speakers are used in outdoor entertainment areas, patios, and gardens.
Portable Bluetooth Speakers: These battery-powered speakers connect wirelessly to devices like smartphones and tablets, making them suitable for on-the-go listening.
Studio Monitors: Also known as reference monitors, these speakers are designed for audio production and recording purposes. They provide accurate and uncoloured sound reproduction.
Gaming Speakers: Tailored for gaming setups, these speakers provide immersive audio experiences, often with features like surround sound and RGB lighting.
Car Speakers: Specifically designed for automotive applications, car speakers are used in car audio systems to provide sound within the vehicle.
Ceiling Speakers: Similar to in-ceiling speakers, these speakers are recessed into the ceiling and are commonly used in commercial spaces, public venues, and home audio systems.
Horn Speakers: Horn speakers use a horn-shaped enclosure to increase efficiency and direct sound, making them suitable for outdoor events and public address systems.
Line Array Speakers: Line array speakers are often used in large venues and concerts to create even sound distribution across a wide area.
Ribbon Speakers: Ribbon speakers use a thin ribbon of material to generate sound, offering detailed high-frequency reproduction.
Each type of speaker is designed to address specific audio needs, room sizes, and preferences. When choosing speakers, consider factors such as the intended use, room acoustics, audio quality, budget, and compatibility with other audio components.
A tweeter is a type of loudspeaker driver designed to reproduce high-frequency sounds in an audio system. It is responsible for producing the treble or high-pitched frequencies in music and audio recordings. Tweeters are essential components in multi-driver speaker systems, such as two-way, three-way, and more complex speaker designs, where different drivers are dedicated to reproducing specific frequency ranges.
Key characteristics and features of tweeters include:
Frequency Range: Tweeters are designed to handle high-frequency sounds, typically ranging from around 2,000 Hertz (Hz) to 20,000 Hz (20 kHz) and above. This range covers the uppermost portion of the audible spectrum.
Diaphragm Material: Tweeter diaphragms are often made from lightweight and rigid materials that can respond quickly to high-frequency vibrations. Common diaphragm materials include fabric, silk, aluminum, titanium, beryllium, and diamond.
Driver Types: Tweeters can be found in various driver designs, including dome tweeters, ribbon tweeters, cone tweeters, and horn-loaded tweeters. Each type has its own characteristics and advantages.
Dispersion: Tweeters are designed to provide wide dispersion of high-frequency sound to ensure that the treble frequencies are evenly distributed throughout the listening area.
Crossover: In multi-driver speaker systems, a crossover network is used to direct specific frequency ranges to different drivers. The crossover ensures that the tweeter only receives and reproduces high-frequency signals.
Power Handling: Tweeters have different power handling capabilities, which indicate the maximum amount of power they can handle without distortion or damage.
Sensitivity: Tweeter sensitivity refers to how efficiently the tweeter converts electrical signals into sound. Higher sensitivity allows for more output with less input power.
Waveguide or Horn: Some tweeters are equipped with waveguides or horns to control and improve the dispersion of high-frequency sound.
Tweeters work in conjunction with other drivers in a speaker system, such as midrange drivers and woofers, to create a full and balanced sound. The combined efforts of these drivers result in accurate audio reproduction across the entire frequency spectrum.
When selecting speakers or audio equipment, it's important to consider the quality and design of the tweeters to ensure that they contribute to clear and detailed treble reproduction. A well-designed tweeter can enhance the overall audio experience by reproducing intricate details, harmonics, and spatial cues present in music and audio recordings.
The size of a woofer bass driver is typically measured in inches (in) rather than millimetres (mm), as it is a common standard for speaker measurements. Woofers are responsible for producing low-frequency sounds, or bass, in audio systems. The size of the woofer driver can significantly impact the speaker's ability to reproduce deep and impactful bass frequencies.
Common woofer sizes for speakers are typically measured in inches and include sizes like 8 inches, 10 inches, 12 inches, and larger. The larger the woofer's diameter, the more air it can move, resulting in potentially deeper and more powerful bass output.
For reference, here's a rough conversion from inches to millimetres for some common woofer sizes:
Keep in mind that the actual performance of a woofer is influenced by factors beyond its size, such as the design of the speaker enclosure, the materials used for the woofer cone, and the quality of the overall speaker construction. When choosing speakers, consider the woofer size along with other specifications to ensure that the speakers meet your desired audio performance and room size requirements.
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Please read our Refund, Return Warranty Policy before making a purchase from Instyle Hi Fi, our Outlined are Our policy on refunds, returns and repairs and your rights under the Australian Consumer Law.
Always inspect any products that we have delivered to you or that you picked up from the Instyle Hi Fi store, to make sure you are completely satisfied with the condition of the products, including that the products are of merchantable quality.
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