Any in, Any out Impedance transforms (eg. 75 Ω in, 50 Ω out)
Very low bandpass ripple
Very low L band through loss
Very high Rx to 10MHz port isolation, no leakage back to rx
Superior Input and Output VSWR
Protects phase noise performance
Will operate with LNBs, BDCs, VSATs, BUCs, and Modems
Machined from solid aluminum billet for strength and stability
Anodized finish for corrosion protection and excellent RF shielding/grounding
Connectors are ‘O’ ring sealed for weather resistant operation
RoHS and REACH compliant
The Orbital MODM Oscillator has a second, feedthrough connector to allow the input DC to be fed through to one of the Mux/Tees to power the LNB or BUC attached.
Lower cost, higher quality with a one-box solution
No labor to source, assemble and test a ‘kluge’
Custom design variations welcome
Custom labeling requirements welcome
An Orbital MODM 10 MHz TCXO Oscillator with Dual Modules seamlessly integrates your system and provides minimum insertion loss, maximum port to port isolation, professionally matched impedances, and gives a choice of connectors providing ease of installation. This configuration can be used to provide a 10 MHz reference and DC power insertion for a horizontal/vertical polarity system or to provide a VSAT with a common 10 MHz source for up and down links.
Another possible configuration would be with a Master Oscillator, a Mux Tee, and a 10 MHz Splitter, providing multiple 10 MHz signals for multiple devices.
Made for Professional Use, Made for Satellite
Orbital Systems Interface Products are made specifically for the satellite industry, and are designed for professional and industrial quality systems. Orbital SIP products are built for rack mounting, and for use indoors or out.
10 MHz Oscillator Dual Mux Tee Options
J1, J2, J9, J10: L-Band: To LNB/BUC & Rx/Modem:
75 Ω F
50 Ω N
50 Ω SMA
J3, J5, J7, J11: DC Supply
J4, J6, J8, J12: 10 MHz Signal
All connectors are SMA
BNC-to-pigtail adapters and BNC-to-binding post adapters sold separately. See SIP price list for part number and price.
Most engineers are aware that with mux tees and diplexers, the phase noise performance of the system – specifically the local oscillator in the LNB, (or the local oscillator in the BUC), is totally dependent on the quality of the10 MHz oscillator. While you can buy a very high quality, very low phase noise, very stable product – getting from that oscillator to the LNB or BUC can create problems if not done correctly. For example, if you amplify and split the 10 MHz signal, you are going to have to ensure that the amplifiers are very low noise, that there is no VSWR issue, and that there is no contributed base noise issue. With an Orbital product taking over that task for you, you are assured of no added noise, no problems with, or distortion of the 10 MHz signal as it is going from the oscillator or to the LNB or the BUC.
You’ve got a redundant switch, you need to power your LNBs separately, so one of them is always on and not being switched by the switch, so you use a bias tee, or a Mux for an external reference unit. Or you have a redundant system and you have to be sure that you’re not switching your 10 MHz, because you’d use lose lock on the LNB you switched to. You have to have a splitter feeding to the LNB all the time, not switched, but to do that you need two Mux/Tees feeding 10 MHz constantly into the LNB, and only the output gets switched.
Anytime you have to split a signal, go to multiple receivers or multiple modems, the safest way is a Mux/Tee or Bias Tee. Anytime you have to use multiple modems to feed a BUC use a Mux/Tee, or Diplexer if you are powering the BUC separately. An Orbital SIP product guarantees performance, filtering, conditioning, no degradation of signal, no ripple problems, and you can transfer impedances at will. Saves time, saves money, it raises system integrity, reliability, and performance.
You’re a sophisticated systems system integrator, you have field technicians, you have system engineers in the field, and you’ve got a lab – what are they using for test purposes? They should each have a bias tee mux in their tool kit, to able to insert and test systems so that they can be assured that there is no problem with bias tee, or they can use it to isolate and diagnose system problems. So there should be a bias tee/mux in every toolbox.
In the lab you have to assure quality measurements, sometimes accurate to better than a tenth of a dB – this is where SIPs really shine. Lab grade products come complete with plots that will indicate the exact loss at each frequency. It will indicate the insertion loss of the 10 MHz, it will give you the isolation value of the 10 MHz back to the receiver, and will assure best match between each of the components on your bench as you’re testing the equipment. In other words, you can trust the results you get by using this device to insert – that applies to noise figure measurements, gain, ripple, temperature measurements, anything you’re testing in the lab, is enhanced and made more certain by using an Orbital Mux/Tee.
One of the issues we faced was that we were not very satisfied with the quality of the connectors available in the satellite industry. You can buy very good connectors at a $150 each, and you can get very poor quality connectors all in the same system, yet the signal is serial, it goes through each one of these connectors, good and bad. The reliability of your system is equal to the reliability of the weakest link in your serial signal chain. The lowest common denominator is going to be your floor of reliability. Therefore we elected to build our own specially designed connectors, that are interchangeable, to allow low-cost production and re-configuration to different impedances and different connectors, and to provide top quality performance above two GHz, which is not the norm, for example, for F connectors. So, by taking control of the connector interface and standardizing its mounting system, we have been able to provide you with maximum choice and flexibility at minimum cost, and yet maintain standards of performance that are redefining the industry standard.
Consistency and reliability, from system to system in large networks, whether they are VPNs or business networks or broadband networks is essential. Being able to standardize on a high quality, reliable and repeatable product is important in your overall system five nines reliability. Remember, quality of service is an important metric these days. The cost of a service call, the cost of a failure, the downtime of a satellite system, it doesn’t matter what fails, whether it’s a thousand dollar component, or a one dollar component – you are still down. You can count on the reliability of the Orbital Mux Tee. It will be the same in Brazil, in the North West Territories, in South America. at the south pole, in Equatorial Africa, on the Saudi desert, it will work the same no matter where you are. You are able to get interchangeability of all of your components because you know that you are connecting to a gold standard product.
Documentation in commissioning the system is also important for large earth-station customers. Orbital, with its state of the art lab, and industry standard equipment from vendors such as Hewlett Packard, Rose and Schwartz, Agilent, Anmitsu, maintain the highest standards of testing and certification of their product. We can provide plots and back up every measurement that we make, not with just figures on a page but with actual measured instrumentation and plots of performance – so that you can introduce these into your commissioning documents, to verify and validate the performance specifications that are claimed. This is particularly important for any Intelsat earth-station, any large scale telecom earth-station, and military applications where system documentation and performance and the ability to log the aging of a system is a matter where you have to have well-documented references or starting points
Systems Interface Products Although Combiners and Oscillators are also SIP products, we have narrowed the definition here to just include Bias Tees, Diplexers, Mux Tees, TTL Switches, Thru Tees, Dual Power Tees, etc.
Here are standard applications for each of these products. Here’s how to insert 10 MHz, insert DC, extract 10 MHz, block DC, extract DC, multiplex DC L band and 10 MHz, and perform impedance transforms while you do it.
I have a pair of modems and I need to use the 10 MHz reference from one of them and split it. I need to take the L-Band signal from both modems and combine it with the 10 MHz reference. Now I need to insert DC power for a pair of high power BUCS.