Easily test all high speed USB 2.0 devices in an RF Shielded test environment ! Latest design includes new LTE cellular bands.
- Fully USB compliant with proper USB enumeration!
- Works with ANY enclosure or screen room
- Single channel filter
- Passes all USB 2.0 signals while rejecting Cellular, LTE, WiFi and other signals above 700 MHz
- Over 80 db attenuation > 1 GHz with flat response < 480 MHz
- Rugged machined aluminum construction
- Balanced filtering for minimal ringing
- Excellent RF Isolationion
The USB 2-1 Filter consists of a USB 2.0 compliant low pass filter inside a machined aluminum housing which provides exceptional RF shielding on all data and power lines. The filter is designed to reject frequencies greater than the Cellular frequencies of 700 MHz while passing data and power between a host computer on one side and a USB device on the other.
Fully USB compliant, correct enumeration process ensures any test ‘hiccups’ will be properly exchanged between devices, ie: no hang-ups are undetected, a problem when using fiber optic or other such interfaces!
The USB interface consists of a balanced pair of bi-directional data lines and an unbalanced power and return pair. Standard USB Type A connectors are used allowing simple and reliable connection to your USB devices. The data line filters pass the up to 480 Mbps of USB Type 1 or 2 data while providing rejection greater than 80dB from 1 GHz through 6 GHz. The power line filters pass the DC power and return while providing rejection greater than 80dB from 400 MHz through 6 GHz. Included is a USB Type A Male to Male jumper cable.
Tight RF shielding to the enclosure wall is assured by the use of a series of 4-40 size mounting screws (template included for stand alone installation). Tests made on competitive filters utilizing a single hole mount with large securing nut were prone to leakage since the coarse thread pitch does not allow a reliable flat seat against the enclosure wall. Additionally, the single mechanical point of securing the filter is subject to loosening and even a tiny loss of tightness results in leakage. Our specifications are measured with the filter installed in an enclosure - and with the same reliability no matter how many times connectors are inserted or the filter bumped or jostled. The smaller size also allows more filters on the I/O plate.
Download datasheet: JREUSB2-1
Features and Benefits
- Reduces interference from Cellular and WiFi
- Single channel USB 2.0 RF filtered interface
- Heavy duty machined aluminum case for reliable shielding and ruggedness
- Multiple points of attachment secures without rotation or loosening
- Precision designed filtering for minimal ringing on data lines
- Excellent RF filtering at all wireless frequencies
Data Line Balanced Impedance: 90 Ohms typical
Typical Insertion Loss (all eight signal lines):
- 10 MHz 0.1 dB
- 150 MHz 1.2 dB
- 250 MHz 1.5 dB
- 350 MHz 2.0 dB
- 480 MHz 3.0 dB
- 700 MHz > 70 dB
- 800 MHz to 6 GHz > 80 dB
- DC Power lines: 0.1 ohms DC resistance, -3 db @ 10 MHz, -60 @ 100 MHz, -80 db, 400 MHz to 6GHz
Outside: 2" H x 3.2" W x 0.8" D (50 x 80 x 20 mm)
JRE USB 2-1 High Speed Filtered USB Interface Connector
USB Inside: USB 2.0 Type A Female connector
USB Outside: USB 2.0 Type A Female connector
Cable: Type A Male to Male jumper cable included
Power capability: USB standard or up to 50 VDC at 1 amp. DC resistance each leg, 0.1 ohms max.
JRE Test’s RF Shielded Test Enclosures deliver real value and save time over in-house fabricated test solutions. Our fast off-the-shelf delivery, unbeatable price and performance make us the first choice for all your RF test needs. The industry's widest line of enclosures provides superior RF isolation from 10 MHz to over 6 GHz, covering the entire range of popular commercial, private and government communications systems. Whether you are designing, integrating, or conformance testing the next generation Wi-Fi, WLAN, 3G Cellular device, you can rely on JRE Test to provide a seamless solution that is compatible with today’s technology and is ready for the future.