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How to enable a full TX coverage on the Yaesu FTDX101D the european version.

Yaesu FTDX10 vs. ICOM IC-7300 Comparison Chart and review of reception performances

A comprehensive and exhaustive review of Yaesu FTDX101 transceiver. Article is in Italian and can be easily translated in your language

A review from a common ham radio operator, using the Yaesu FTdx101D series transceiver

Yaesu FTDX101D HF and 6-Meter Transceiver ARRL QST review

This article describes the design and construction of a 4-meter band vertical sleeved dipole antenna, built to complement a newly acquired Yaesu FTDX10 transceiver. The simple yet effective antenna consists of modified coaxial cable housed in weather-resistant plastic conduit, featuring an integrated 8-turn choke coil. Despite common misidentification as an EFHW antenna, this design is actually a sleeved dipole that provides an excellent 50-ohm match across the band, achieving SWR values between 1:1 and 1.1:1. The project demonstrates an economical approach to entering the relatively quiet 4-meter band.

The Yaesu FTDX10 is presented as a compact HF/50MHz 100W SDR transceiver, employing a Hybrid SDR configuration that integrates Narrow Band SDR and Direct Sampling SDR. The Narrow Band SDR receiver features a Down Conversion design with a 9MHz first IF, incorporating 500Hz, 3kHz, and 12kHz crystal roofing filters. This architecture achieves a Reciprocal Mixing Dynamic Range (RMDR) of 116dB or more, a Blocking Dynamic Range (BDR) of 141dB or more, and a 3rd Order Intermodulation Dynamic Range (3rd IMDR) of 109dB or more in the 14MHz band at 2kHz separation. The local oscillator circuit utilizes a 250MHz High Resolution Direct Digital Synthesizer (HRDDS) method, contributing to a phase noise characteristic of -145dB or less in 14MHz at 2kHz separation. The transceiver incorporates a 5-inch Full-Color TFT display with touch-panel functionality, featuring a 3DSS (3-Dimensional Spectrum Stream) display for enhanced visualization. Front panel controls include an MPVD (Multi-Purpose VFO Outer Dial) for operational efficiency. Remote operation capabilities are supported with the optional SCU-LAN10 unit. Additional features include 15 separate band pass filters, IF DSP for QRM rejection, a high-quality final amplifier with RD70HUP2 MOSFETs, an aluminum heat sink with an 80mm cooling fan, and a high-speed automatic antenna tuner with 100-channel memory. The page also lists various accessories such as the SP-30 external speaker, XF-130CN 300Hz roofing filter, and several microphone models, alongside links to product brochures, operating manuals, and firmware updates.

VE3SMA's document addresses several operational issues encountered with the Yaesu FTDX10 HF transceiver, offering practical solutions and technical explanations. It specifically tackles the high-frequency headphone hiss during CW operation with narrow filters, providing a schematic for a homebrew audio filter to mitigate this. The resource also investigates the FTDX10's behavior of transmitting CW via USB even when BK-IN is set to OFF, particularly when using N1MM+ contest software, and suggests tuning outside ham bands as a workaround. Furthermore, the document notes the rapid disappearance of band and mode selection screens, acknowledging a December 2021 software update that extended their display times. The analysis extends to audio harmonics generated in digital modes like FT8 and JS8CALL when using USB audio input, attributing the issue to unattenuated USB CODEC output and a low PRESET RPORT GAIN value. VE3SMA proposes a solution involving a higher RPORT GAIN setting (between 30 and 70) and a lower transmit audio level from the computer, demonstrating how to achieve a clean signal using the FTDX10's built-in spectrum scope. The document also discusses unstable power output in FT4/FT8 modes when driving an amplifier, recommending the use of Fake It or Rig Split modes in WSJT-X and operating with some ALC action. Finally, it explores methods for achieving a low-power continuous carrier for adjusting external antenna tuners, offering various techniques depending on the operating mode.

Setting up a digital mode station for Radioteletype (RTTY) contesting requires careful integration of transceiver and logging software. This guide outlines the specific configuration for a Yaesu FTDX10 and N1MM Logger, focusing on settings relevant for the 2025 CQ WW RTTY contest. It covers digital mode setup within N1MM, mode control, and RTTY-specific parameters, including the use of the FTDX10's DATA-L or RTTY-L modes. Operational guidance includes leveraging the 300Hz CW roofing filter for enhanced adjacent signal rejection and proper MMTTY window resizing to ensure accurate FFT and XYScope displays. The author notes a consistent received signal offset of -1.5 kHz from the VFO frequency during operation. Specific software versions used are N1MM V1.0.10936.0, MMTTY 1.70, and various FTDX10 firmware versions. The document also mentions an unsuccessful attempt to integrate a WinKeyer USB (WKSMT, firmware 31.03) for FSK waveform generation, where N1MM could key the radio and 100W was measured, but no tones were observed on the FTDX10's scope displays.

This resource details a solution for establishing CAT control and digital mode operation for the _Yaesu FTDX10_ transceiver on Apple macOS systems. The methodology focuses on bypassing Silicon Labs VCP/USB to Serial drivers, which caused system instability on a MacBook Pro. The author utilized a Sabrent USB 2.0 to Serial (9-Pin) adapter, featuring an FTDI chipset, which provides native driver support within macOS. This setup enables direct control of the FTDX10 via a USB connection without proprietary driver installations. The article specifies the use of a female-to-female DB9 adapter to connect the Sabrent unit to the FTDX10. Configuration details include setting the RS232 port to **38400** baud on the radio and within WSJT-X software. Audio routing for digital modes is achieved by connecting a standard USB lead from the FTDX10 to a second USB port on the MacBook, leveraging the transceiver's integrated sound card, which is natively supported by macOS 11.6.2 (Big Sur). The configuration was validated using FT8 on the 30-meter band.

Presents an extended-period review of the Yaesu FTDX10 HF transceiver, focusing on its operational usability and long-term reliability after approximately ten months of alternating use. The analysis details aspects such as the radio's interface logic, menu navigation, and overall functional consistency, contrasting these with published specifications and common user expectations. It addresses specific operational scenarios and evaluates the radio's behavior under various conditions, providing observations on potential discrepancies between advertised features and practical application, including issues like panel timing, knob placement, and DNR aggressiveness. The review compares the FTDX10's performance and user experience against the Icom IC-7610 and Icom IC-7300 transceivers, particularly regarding receiver performance, roofing filters, APF, and dedicated width/shift controls. It highlights disadvantages such as disabled functions during transmit, slow internal ATU performance, lack of spectrum scope averaging, and various quality assurance issues like volume knob faults, failing screens, and FT8 harmonics. The document also includes commentary on Yaesu's product support, noting a lack of response to user feedback, and observed reliability of the FTDX10 unit over time, offering a perspective beyond initial laboratory measurements like those from Sherwood Engineering.

The Yaesu FTDX10 and FT-710 HF transceivers underwent three weeks of side-by-side operational testing, revealing marginal differences in CW selectivity. At a 500Hz bandwidth, the FTDX10 allowed approximately 40Hz closer signal approach before audio detection compared to the FT-710. No discernible performance variations were observed in SSB mode or the efficacy of Noise Blanker (NB), Digital Noise Reduction (DNR), or Digital Notch Filter (DNF features. Physical dimensions differentiate the units: the FTDX10 measures 266 x 91 x 263 mm and weighs 5.9 kg, while the FT-710 is 239 x 80 x 247 mm and 4.5 kg. The FTDX10 incorporates a larger, brighter display with a cooler blue tone, contrasting with the FT-710's warmer screen hue. Ergonomic considerations include the FTDX10's bottom-left AF/RF knob placement versus the FT-710's right-side arrangement, which separates AF and RF into distinct controls. Further distinctions include the FTDX10's dedicated Shift, Width, Notch, Contour, and APF knobs, which are menu-driven on the FT-710. The FTDX10 also features a customizable C.S. key and separate CLAR TX/RX keys controlled by the outer VFO dial, a more intuitive implementation than the FT-710's single Clarifier key. Amplifier integration also varies, with the FTDX10 supporting simultaneous amplifier and FH-2 keypad use, a capability absent in the FT-710 when an ALC connection occupies the REMOTE jack.

The page presents a collection of blog posts tagged with "yaesu-ftdx10" from the VE3IPS WordPress site. It serves as an index for content related to the Yaesu FTdx10 transceiver, often in comparison with other popular HF rigs like the Icom IC-7300 and Yaesu FT-710 AESS. The aggregated content details specifications such as 100W output power and various SDR architectures. Specific articles linked from this tag page likely delve into operational aspects, including receiver performance, audio clarity, and user interface characteristics of these transceivers. Mentions of features like the IC-7300's real-time spectrum scope and USB integration, or the FTdx10's roofing filters and contest-proven Contour and DNR filters, indicate a focus on technical distinctions. The resource also highlights limitations, such as the basic 3:1 internal tuner in some models and the absence of VHF/UHF coverage in the IC-7300. The Yaesu FTdx10's superheterodyne and SDR approach, along with its placement on the Sherwood Engineering receiver performance list, are key points of discussion within the linked posts.

Eight specific user interface limitations are identified in the Yaesu FTdx10 transceiver's firmware, drawing on the author's extensive software engineering background and experience with Icom IC-705 and IC-7300 interfaces. The analysis highlights issues such as the main dial Lock button disabling the RX/TX Clarifier, which impedes net control and pile-up operations. It also points out the FTdx10's spectrum scope display modes lack a "Scroll-F" equivalent for efficient band scanning, a feature common in Icom radios. Further points address the inability to access screen-based settings during transmit, the need for improved antenna tuner behavior with an option to reset settings and intelligent segment recall, and limitations when using an external mouse, such as the scroll wheel not functioning as the main dial or function knob. The author also notes the lack of automatic power reduction when using external LDG tuners and the CW decoder's all-caps display, which hinders readability. These observations aim to guide Yaesu in enhancing the FTdx10's user experience, leveraging its strong receiver performance and advanced features.

Configuring a Yaesu FTDX10 transceiver for digital modes like FT8, FT4, and MSK144 requires precise adjustments across both the operating system and the digital mode software. This resource details specific Windows 10 audio codec settings, including playback levels at 29 and recording levels at 47, along with advanced 16-bit 48000 bps (DVD Quality) selections for optimal signal fidelity. It also specifies checking the "Disable all enhancements" box for playback and enabling audio enhancements for recording. The document outlines critical WSJT-X v.2.5.1 parameters, such as setting the Rig to FTDX-10, a 1-second poll interval, and a 38400 baud rate for CAT control. The PTT method is configured to RTS, with Split Operation set to "Fake It" or "None." Audio input and output are directed to the USB AUDIO CODEC, with a recommended WSJT-X Pwr Slider setting of -32.0 dB, adjusted to ensure ALC meter readings remain within the white segment on the FTDX10. Transceiver-specific settings include a CAT RATE of 38400 bps, AMC RELEASE TIME set to MID, and DATA SHIFT (SSB) at 1500 Hz. The RPORT GAIN is specified at 70, with notes suggesting lower values (e.g., 30) can also yield clean signals. Transmit bandwidth selection is discussed, recommending 50-3050Hz for wideband modes like MSK144, while suggesting 400-2600Hz for FT4/FT8 to mitigate second harmonics and improve signal purity. The guide also references discussions with W5AJ, DO1YHD, AC6BW, and W9RTB.

Evaluates the Yaesu FTDX10 receiver performance against an Elecraft K3 (serial #216) during the NAQP CW contest, specifically assessing weak signal reception adjacent to strong signals. Testing involved a 300 Hz bandwidth, Audio Peak Filter (APF) activation, 6 dB attenuation, and preamplifier deactivation to simulate challenging operating environments. The FTDX10's adjustable APF, offering NARR, MED, and WIDE settings, is directly compared to the K3's single APF setting. Observations highlight the FTDX10's superior suppression of a strong signal at X+100Hz, demonstrating less bleed-through into the passband compared to the K3, even with the K3's 500Hz roofing filter engaged. This indicates improved dynamic range and selectivity in the FTDX10's receiver architecture under high-intensity signal conditions. The analysis also briefly notes transmit T/R relay noise characteristics, providing a comprehensive, albeit concise, technical comparison of these two popular HF transceivers.

The Yaesu FTdx10 HF transceiver underwent comprehensive laboratory testing by Sherwood Engineering, with results documented on December 29, 2020. Key receiver performance metrics include IF bandwidth measurements at -6 dB and -60 dB for 2400 Hz and 500 Hz filters, showing ultimate rejection exceeding 100 dB and 105 dB respectively. Front-end selectivity and first IF rejection at 9005 kHz were measured at 91 dB. Receiver dynamic range, both with and without preamps, was consistently 107 dB at 20 kHz, 10 kHz, 5 kHz, and 2 kHz spacings without preamplification, and 106 dB with Preamp 1 at 20 kHz. Blocking performance reached 141 dB at 100 kHz offset with a 1uV signal. Phase noise was normalized across offsets from 2.5 kHz to 500 kHz, with a value of -145 dBc/Hz at 2.5 kHz and -155 dBc/Hz at 500 kHz. Reciprocal Mixing Dynamic Range (RMDR) peaked at 128 dB at 500 kHz spacing. Noise floor measurements for SSB and 500 Hz bandwidths at 14 MHz and 50.125 MHz showed -133 dBm with Preamp 2 at 14 MHz SSB. Sensitivity figures and S-meter accuracy were also documented, with one S unit equating to 3 dB from S3 to S9. Transmitter composite noise was measured at 100 watts and 30 watts, with values like -123 dBc/Hz at 2 kHz offset for 100 watts. Operational observations from the January 2021 CQWW 160m CW contest highlighted ergonomic issues, such as VFO knob placement and small buttons. A significant firmware limitation noted was the band scope and waterfall data being erased upon transmission, which severely reduces its utility for search and pounce operations.

The Yaesu FTDX10 MF/HF and 6-meter transceiver, a 100-watt rig, is designed to bring high-performance receiver architecture to the intermediate-price class. It offers continuous receive coverage from 30 kHz to 75 MHz and transmit capabilities across all amateur bands from 160 through 6 meters, including five preset CW and SSB channels on 60 meters. The transceiver supports AM, FM, SSB, CW, and digital modes, with integrated decoders for CW, RTTY, and PSK31, making it a versatile station for various operating preferences. Physically, the FTDX10 measures 3½ × 10½ × 10½ inches and weighs 13 pounds, requiring a 20–25 A DC power supply for full 100 W output. Its front panel features a 5-inch TFT color touchscreen and a large VFO knob, complemented by an SD memory card slot for recording audio and saving settings. Rear panel connectivity includes a single SO-239 antenna port, multiple USB ports for CAT control and peripherals, and DIN jacks for external digital mode hardware and linear amplifiers, though it lacks a dedicated low-noise receive antenna provision. ARRL Lab tests confirm excellent receiver performance, with blocking dynamic range exceeding 137 dB at 2 kHz spacing and robust IMD dynamic range figures. The hybrid receiver design incorporates selectable roofing filters at 500 Hz, 3 kHz, and 12 kHz, along with two preamplifiers and various attenuation levels, allowing operators to tailor reception characteristics to challenging band conditions. Transmitter performance is also rated very good, with low transmit phase noise.