Time Slot Two

Talk Group	Description	Activate
2	Local/Montreal Region	Always On
8	Regional (Future)	Always On
9	Reflector (Local for Now)	Always On
3020	Newfoundland / PEI	User Activated
3021	Nova Scotia	User Activated
3022	Quebec	User Activated
3023	Ontario	User Activated

3024	Manitoba	User Activated
3025	Saskatchewan	User Activated
3026	Alberta	User Activated
3027	British Columbia	User Activated
3028	NWT/Yukon/Nunavut	User Activated
3029	New Brunswick	User Activated

Time Slot One

Talk Group	Description	Activate
1	Worldwide	Always On
3	North America	Always On
11	Worldwide French	Always On
13	Worldwide English	Always On
111	French	User Activated
113	English	User Activated
121	French 2	User Activated
123	English 2	User Activated
131	DMRplus Canada French 4581	User Activated
133	DMRplus USA 4639	User Activated
302	Canada Wide	User Activated
310	TAC 310	User Activated
311	TAC 311	User Activated
312	TAC 312	User Activated
3022	DMRQ Belairnet to BM	User Activated
3100	DCI Bridge 3100	User Activated
8951	DCI TAC 1	User Activated
9998	Parrot(DMRX)	User Activated
9999	Parrot(MARC)	User Activated
31361	BM Upstate New York	User Activated
31363	BM Adirondacks	User Activated

Icom IC-7300 review

Icom IC-7300 is the first direct sampling SDR (software defined radio) available from one of the "big three" japanese manufacturers. This helps it bring a whole new level of performance at an accesible price point, a much more flexible configuration and a set of features only seen in top-of-the line equipment. Real-time panadapter or fully customizable filters are just the tip of the iceberg.

 Sure, amateur equipment has been using for a long time various levels of digital signal processing (DSP), but usually this was done in the last part of the receive chain, where it mostly impacted audio quality and not receiver performance. Moving to a direct-sampling SDR architecture means the signal coming from the antenna is directly transposed to the digital domain and instead of all the previously familiar receiver stages (such as mixers, filters, demodulators etc) we are using mathematical formulas applied to the data stream. The advantage of this approach is it eliminates all problems related to real-world hardware receivers (noise, distorsion, losses, imperfections, limitations etc) and opens up a new world on how you can use or visualize RF signals. Goodbye unwanted mixing products, AGC non-linearity, IF chain IMD or filter blow-by. You want a 200Hz to 2250Hz SSB filter ? Just go into the menu, customize it to that value and see how that carrier at 2260Hz simply doesn't get trough; yes, filter width and shape is just a matter of settings, leaving it all to mathematics to carry it out. Basically, the only part that limits the receiver performance is the Analog-Digital Converter (ADC) that samples the RF signal, and those are already very good.