Advance Paris MyConnect 150
As a part of our dealer agreement this product is unavailable for online sale. Please CONTACT US for purchasing options.
As a part of our dealer agreement this product is unavailable for online sale. Please CONTACT US for purchasing options.
The MyConnect 150 is an integrated tube hifi system designed for audiophiles. It features a tube preamplifier that delivers exceptional musicality and a powerful 2x150W amplifier section capable of driving even the most demanding speakers. The system is versatile and can handle both digital and physical sources. It includes a network player that allows you to play music from your smartphone, tablet, PC, network hard drive, or USB keys. It can be controlled using the Advance playstream application available on the AppStore or GooglePlay. The system also supports popular streaming services like Spotify, Qobuz, Deezer, Tidal, and TuneIn. Additionally, it has a CD player, FM tuner, DAB/DAB+ tuner, Bluetooth port for compatible dongles, and an X-MOS port for direct connection to a PC or MAC.
| Brand | Advance Paris |
|---|---|
| Color | Black |
| Frequency Response | 20Hz – 80kHz |
| Watts RMS per Channel (4 Ω) | 2 x 190W RMS |
| Watts RMS per Channel (8 Ω) | 2 x 130W RMS |
| Signal-to-Noise Ratio | 105dB |
| LAN | 1 |
| Wireless LAN (Wi-Fi) | 1 |
| Bluetooth® Wireless Technology | aptX™, aptX™ HD |
| Online Audio Services Support | Spotify Connect, TIDAL, Deezer, TuneIn |
| App Remote Control | Yes |
| Phono Input | Yes |
| RCA Input | 8 |
| Coaxial Digital Inputs | 2 |
| Optical Digital Inputs | 3 |
| USB A Ports | 1 |
| Preamp Outputs | 1 |
| Subwoofer Outputs | 2 |
| Warranty | Australian Manufacturer Warranty |
| Product Dimension (H×W×D) | 170 x 371 x 430 mm |
|---|---|
| Product Weight | 14.5 Kg |
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.
"Online audio services support" refers to the compatibility and integration of audio devices, such as speakers, headphones, and audio systems, with various online platforms and streaming services that provide music, podcasts, radio stations, and other audio content over the internet. This support enables users to access and enjoy a wide range of digital audio content through their devices.
Key points about online audio services support:
Streaming Platforms: Online audio services include popular streaming platforms like Spotify, Apple Music, Amazon Music, Tidal, Deezer, Pandora, YouTube Music, and more. These platforms offer vast libraries of music tracks, albums, playlists, podcasts, and radio stations.
Integration: Many audio devices are designed to integrate seamlessly with these online platforms. Integration can involve dedicated apps, voice assistants (e.g., Amazon Alexa, Google Assistant), or direct compatibility with the platform's APIs (Application Programming Interfaces).
Device Compatibility: Online audio services support can be found in a variety of devices, including smart speakers, wireless headphones, soundbars, AV receivers, and home audio systems.
Control and Interaction: Devices with online audio services support allow users to search for, select, and play specific songs, artists, albums, or playlists directly from the platform's app or through voice commands to the device.
Personalisation: Online services often offer personalised recommendations and playlists based on users' listening habits and preferences. This personalisation enhances the user's music discovery experience.
Multi-Room Audio: Many platforms and devices support multi-room audio, allowing users to synchronise and play the same audio content on multiple devices throughout their home.
Offline Listening: Some platforms offer offline listening modes, enabling users to download content for playback when an internet connection is unavailable.
Subscription Models: Online audio services typically offer both free and premium subscription models. Premium subscriptions often provide ad-free listening, offline downloads, higher audio quality, and additional features.
Cross-Platform Access: Users can often access online audio services from various devices, including smartphones, tablets, computers, smart TVs, and dedicated audio equipment.
Voice Control: Voice assistants integrated into devices enable hands-free control of online audio services. Users can request specific songs, playlists, genres, and more using voice commands.
Firmware Updates: Some devices receive firmware updates to add support for new online audio services and features, enhancing the user experience over time.
Geographic Availability: The availability of online audio services can vary by region, as some platforms may have licensing restrictions that limit access in certain countries.
Online audio services support is an important aspect of modern audio devices, providing users with convenient access to a vast array of audio content and enhancing the overall enjoyment of music, podcasts, and other audio entertainment. When choosing audio devices, it's advisable to check for compatibility with your preferred online audio services to ensure a seamless and integrated 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.
Preamp outputs, also known as preamp outputs or pre-out outputs, are connections found on audio equipment, particularly AV receivers, amplifiers, and some stereo components. These outputs are used to connect external amplifiers, subwoofers, or other audio devices to the main unit, allowing for greater flexibility and customisation in audio setups.
Key points about preamp outputs:
Signal Level: Preamp outputs provide a low-level audio signal, typically before it is amplified by the main amplifier section of the audio device. This signal is suitable for connecting to external power amplifiers, subwoofers, or other audio equipment.
Use Cases:
Flexibility: Preamp outputs offer flexibility by allowing you to customise your audio system according to your preferences, upgrade components over time, or achieve specific audio goals.
Volume Control: In some setups, preamp outputs may still be affected by the main unit's volume control, meaning changes in volume will affect the signal sent to external devices. This is common in home theatre systems where you want to control the overall volume for all speakers.
Connection Type: Preamp outputs are usually provided as RCA connectors (phono connectors) on the back of the audio device. Some high-end equipment might offer balanced XLR preamp outputs.
Adjustment and Setup: Some AV receivers and preamplifiers may allow you to configure the output level of the preamp outputs, ensuring proper balance with other components.
Bi-Directional Functionality: Some AV receivers and processors offer preamp outputs that can also serve as preamp inputs, allowing you to use the same connectors for both sending and receiving signals.
Crossover and EQ: Preamp outputs may include built-in crossovers and equalisation settings to optimise the signal for specific connected devices, such as subwoofers.
Preamp outputs are a valuable feature for audio enthusiasts and those seeking to create more advanced audio setups. They provide a way to expand, customise, and fine-tune audio systems by integrating external amplifiers, subwoofers, and other audio devices, ultimately enhancing sound quality and meeting specific audio preferences.
Signal-to-Noise Ratio (SNR) is a measure used in various fields, including electronics, telecommunications, audio engineering, and signal processing, to quantify the quality of a signal relative to the presence of unwanted noise. SNR compares the level of the desired signal to the level of background noise or interference, providing an indication of how clearly the signal can be distinguished from the noise. It is often expressed in decibels (dB).
In general, a higher SNR indicates a better quality signal, as the desired signal is stronger in relation to the background noise.
Significance of SNR:
Audio Engineering: In audio systems, SNR indicates how much the desired audio signal stands out from the background noise introduced by electronic components, cables, and environmental factors. A high SNR is crucial for clear and high-fidelity audio reproduction.
Telecommunications: In telecommunications, SNR is a key factor in determining the quality of voice or data transmissions over networks. A higher SNR in a communication channel reduces the likelihood of data errors or signal degradation.
Image Processing: In imaging and photography, SNR relates to the clarity and detail of an image. A higher SNR in image sensors leads to less noise in photographs, resulting in sharper and more detailed images.
Wireless Communication: In wireless communication systems, SNR affects the range, reliability, and data throughput of wireless connections. A higher SNR allows for better signal reception and improved communication quality.
Research and Scientific Measurement: In scientific experiments and measurements, SNR is used to assess the accuracy and reliability of collected data. Researchers aim to maximise the SNR to obtain meaningful results.
Digital Signal Processing: In signal processing applications, SNR is used to evaluate the effectiveness of noise reduction techniques and algorithms that enhance the quality of signals.
It's important to note that a very high SNR may not always be achievable due to practical limitations. Balancing the trade-off between signal strength and noise reduction is essential in designing and optimising systems for various applications.
Wireless LAN, commonly referred to as Wi-Fi (Wireless Fidelity), is a technology that allows devices to connect to the internet and communicate with each other wirelessly using radio waves. Wi-Fi is a fundamental technology in modern networking, enabling wireless connectivity for a wide range of devices, from smartphones and laptops to smart home devices and IoT (Internet of Things) devices.
Key features and concepts related to Wi-Fi include:
Wireless Access Points (APs): Access points are devices that create Wi-Fi networks. They transmit and receive data between Wi-Fi-enabled devices and the wired network infrastructure, such as routers and switches.
Wi-Fi Standards: Wi-Fi technology has evolved over the years, with different generations or standards providing improvements in data transfer speed, range, and capabilities. Common Wi-Fi standards include 802.11n, 802.11ac, and 802.11ax (Wi-Fi 6).
Frequency Bands: Wi-Fi operates in specific frequency bands, most commonly in the 2.4 GHz and 5 GHz bands. The 5 GHz band generally offers higher data transfer speeds and less interference but may have slightly shorter range compared to the 2.4 GHz band.
Channels: Wi-Fi channels are specific frequencies within the frequency bands. Channels are used to avoid interference between neighboring networks.
SSID (Service Set Identifier): The SSID is the name of a Wi-Fi network. When you search for available Wi-Fi networks on your device, you see a list of SSIDs to choose from.
Encryption: Wi-Fi networks can be secured using encryption protocols like WPA2 (Wi-Fi Protected Access 2) or WPA3. Encryption helps protect data transmitted over the wireless network from unauthorised access.
Authentication: Wi-Fi networks often require a password or other authentication method to ensure that only authorised users can connect.
Range: The range of a Wi-Fi network depends on factors like the power of the wireless access point and obstacles in the environment. Signal strength may weaken over distance or due to interference from walls, floors, and other electronic devices.
Wireless LAN Controllers: In enterprise or larger network setups, wireless LAN controllers manage multiple access points, optimising network performance, security, and roaming capabilities.
Wi-Fi is essential for enabling wireless internet connectivity, allowing devices to access online services, browse the web, stream media, and interact with cloud-based applications. It has transformed the way we use and interact with technology, enabling seamless and convenient connectivity in various environments, from homes and offices to public spaces and public transportation.
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