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Today, T-Mobile announced further details on the deployment plans for their 600MHz spectrum. Let's review what we indicated back in April.
The green areas are the areas that we expected T-Mobile to deploy a 5x5 LTE channel using their 600MHz spectrum. Let's check these areas with the press release:
Central Pennsylvania appears to be our only miss in this T-Mobile list. It is strange that T-Mobile is emphasizing a 600MHz deployment in an area they already control the 700MHz -A Block spectrum.
In my most recent post on the filed FCC Transactions for February 2017 there were over 275 call signs that were assigned to new licensees and nearly 100 call signs that were leased. In an industry driven by spectrum, these changes affect the operations for every wireless carrier, they change site interference, and they affect the channels that are programmed into private repeaters and DAS systems.
So how can your company stay on top of the changes that may affect your markets. Allnet Insights' publishes a National Carrier Spectrum Depth Report which details the spectrum held by Verizon, AT&T, T-Mobile, Sprint, Dish, and USCellular in the Top 100 Cellular Market Areas (CMA). We report both the spectrum that each carrier currently holds (Current Holdings) and the spectrum they will hold in the future (Future Holdings) based on pending FCC transactions. Reporting on both current and future holdings enables Allnet Insights' to also report on the changes between current and future holdings which highlight the location and quantity of spectrum that is changing hands.
Below is a screenshot of the 11th through the 25th most populated CMA markets in our February 2017 report. This highlights the markets where the national carriers are either increasing or decreasing their spectrum holdings. In the Excel report you can reveal specific holdings by frequency bands that are changing but for this post, we will stay with the total spectrum view. From this view, you can see that in San Diego, T-Mobile is increasing their held spectrum by 5MHz while AT&T is decreasing their held spectrum by 5MHz. The reverse is happening in the Sacramento CMA.
We also highlight the spectrum that is changing hands in our Web Spectrum Viewer. In the Spectrum Grid menu, we lower case the 3 letter carrier code to indicate that the carrier ownership is changing from the current to the future. Looking at the same San Diego market (San Diego County) you can see (tmo) on the PCS B6 spectrum. Since this screen shot is of the Future Holdings, T-Mobile is will control this spectrum in the future.
Future:
The screen shot below is of the San Diego County Current Holdings. (att) in the PCS B6 column indicates that AT&T is the current operator of the B6 channel.
Current:
For Sacramento (Placer, Sacramento, and Yolo Counties), we can see that AT&T will be the future operator of the PCS B11 channel and that T-Mobile will be the carrier giving up the PCS B11 channel.
Future:
Current:
My last example is in Tucson, AZ. From the National Carriers Report we can see that T-Mobile is increasing their held spectrum by 10MHz.
From the Web Spectrum Viewer, it is clear that T-Mobile is receiving the PCS A10 and A11 channels from Commnet (cmm).
Future:
Current:
Today, we have released Allnet's Insights' January 2017 Mobile Carrier - Spectrum Ownership Analysis Tool. Below are the transactions that have been updated by the FCC from December 1 to December 31 and are included in our update.
The details for all of the below transactions are available by subscribing to Allnet Insights' Web Tool - Basic Module. Our Web Tool provides spectrum transaction detail, a spectrum grid of spectrum owners at a county level, and spectrum database covering all mobile carrier frequencies from 700MHz to 2.5 GHz.
Granted Assignments (Assigning Ownership from Assignor to Assignee):
Granted Leases (Leased to Assignee from Assignor):
New Pending Assignments (Assigning Ownership from Assignor to Assignee):
Pending Leases (Leased to Assignee from Assignor):
In this blog post I am going to explore how Sprint can configure their PCS spectrum for LTE using Allnet Insights' Mobile Carrier Spectrum Ownership Analysis Tool. As a review Sprint's initial LTE deployment utilized a 5 MHz PCS G Block channel. In the map below I have determined the maximum channel size for spectrum that is contiguous with Sprint's initial LTE channel. In Seattle, Sprint can expand their initial channel to a 10MHz LTE channel while in Las Vegas Sprint can expand their initial channel to a 20MHz channel.
Looking at the Las Vegas market area with Allnet Insights' Spectrum Grid Module, you can see the specific channels Sprint controls in each county. For Clark County, Sprint controls all of the C block channels along with the G block. Unfortunately for Sprint, they can't use the entire 20MHz for LTE since they still need PCS spectrum for their CDMA voice service. In Esmeralda County Sprint has 15MHz of spectrum including the G block that should be configured for LTE with 10MHz of the A block channels available for CDMA voice.
The map below details the largest channel size of PCS spectrum that Sprint controls aside from the spectrum contiguous with the G block. This is the spectrum that can be shared with CDMA voice and could also be deployed in Sprint's FDD-LTE carrier aggregation scheme.
With Fierce Wireless' recent article highlighting T-Mobile's inclusion of LTE Band Class 66 in their LG V20 handset, we decided to dig into the markets where T-Mobile has AWS-3 spectrum and try to understand how it will be deployed for LTE. The Spectrum Blocks map below indicates the counties where T-Mobile controls AWS-3 spectrum along with the specific blocks they control. The magenta areas indicate that T-Mobile controls the G, H, and I blocks of AWS-3 spectrum.
Below is band configuration guide from the FCC which indicates the layout of the individual channels. The AWS-3 G channel is adjacent to the AWS-1 F channel.
The channel size map below indicates the largest LTE channel size (5x5, 10x10, or 15x15) that could be deployed using only T-Mobile's AWS-3 spectrum.
The last map depicts the counties where T-Mobile's AWS-3 spectrum is contiguous with their existing LTE deployed in the AWS-1 spectrum. These are areas where T-Mobile could increase the LTE channel size if they haven't already their desire wide band LTE values of 15 or 20MHz channel
To develop these maps, we utilized several analysis modules within Allnet Insights' Spectrum Ownership Analysis Tool. First we utilized the Spectrum Grid Analysis Module to confirm the channel alignment for both the AWS-1 and AWS-3 frequency bands. For the AWS-1 and AWS-3 spectrum blocks the channels are lettered consistently from A to J (lowest frequency to highest frequency). This is critical to understand what channels are adjacent to each other. The lettering of channels in most of the mobile carrier frequency bands does not straightforward like the AWS-1 and AWS-2 frequency blocks.
Below is a portion of our Spectrum Grid for the New York, NY and Los Angeles, CA counties.
Once we confirmed that what channels are adjacent to the AWS-1 block, we utilized the Channel Blocks Analysis Module to determine on a county by county basis, whether T-Mobile owned the spectrum adjacent to the AWS-3 frequencies (AWS-1 F Block) and whether they also owned contiguous spectrum adjacent to the AWS-1 F Block (either G, G and H, or G, H, and I). The markets where T-Mobile controls the J channel, they don't control the I channel so the J channel won't be contiguous to any of their existing spectrum.
In the example below, I have highlighted 3 counties in the Beaumont-Port Arthur, TX CMA where the addition of the AWS-3 G channel will allow T-Mobile to expand their LTE channel from 15MHz to 20MHz. The values in each of the Channel Blocks columns represent the spectrum depth for each of those channels held by T-Mobile. Each of these spectrum depth values need to be cut in half to represent the LTE channel size. This is because 1/2 of each channel's spectrum is used for the cell site's transmitting (downlink) LTE channel and the other 1/2 is used for the cell site's receiving (uplink) LTE channel.
With this blog post, I want to uncover the details behind a specific set of spectrum transactions that AT&T and T-Mobile filed in October 2015. These transactions were finalized on April 2, 2016. The purpose of these spectrum transactions was to allow each carrier to increase the size of their LTE channels either in the PCS frequency band or the AWS frequency band. This is typically accomplished by either swapping the operating frequency blocks within a market or by acquiring additional spectrum in a market by providing needed spectrum to the other carrier in a different market.
This analysis is extracted from Allnet Insights Web Tool's Transaction Summary which is used to update the current spectrum operator and future spectrum operator in Allnet's Spectrum Database and Spectrum Ownership Analysis Tool.
First we will look at the spectrum transaction where T-Mobile is assigning spectrum to AT&T.
Complete Call Signs:
This is a list of the call signs including frequency blocks, and channel blocks that T-Mobile is assigning completely to AT&T. It should be noted that although a market is indicated, you cannot assume that the call sign included all of the counties in that market area.
Spectrum Dis-aggregated from Complete Call Signs by Frequency:
This list represents call signs where T-Mobile is only assigning a portion of the call sign's spectrum to AT&T. In this case, T-Mobile is assigning only the upper 5 MHz of the AWS A channel block to AT&T. They will retain ownership of the lower 5 MHz.
Spectrum Dis-aggregated by County:
This list represents call signs where T-Mobile is only assigning a portion of the call sign's spectrum to AT&T. In this case, T-Mobile is assigning only the listed counties from the call sign to AT&T.
Spectrum Dis-aggregated by County and by Frequency:
This list represents call signs where T-Mobile is only assigning a portion of the call sign's spectrum to AT&T. In this case, T-Mobile is assigning only a portion of the spectrum in the identified counties to AT&T.
Now, we will look at the spectrum transaction where AT&T is assigning spectrum to T-Mobile:
Complete Call Signs:
This is a list of the call signs including frequency blocks, and channel blocks that AT&T is assigning completely to T-Mobile. It should be noted that although a market is indicated, you cannot assume that the call sign included all of the counties in that market area.
Spectrum Dis-aggregated by County:
This list represents call signs where AT&T is only assigning a portion of the call sign's spectrum to T-Mobile. In this case, AT&T is assigning only the listed counties from the call sign to T-Mobile.
Spectrum Dis-aggregated by County and by Frequency:
This list represents call signs where AT&T is only assigning a portion of the call sign's spectrum to T-Mobile. In this case, AT&T is assigning only a portion of the spectrum in the identified counties to T-Mobile.
email us at: info@allnetinsights.com to request a copy of the above map
Our most recent posts have looked at the low band spectrum that T-Mobile is accumulating, the 700 MHz A-Block. To see the low band spectrum that AT&T has typically deployed for LTE, we need to look at the 700 MHz B-block and 700 MHz C-block. With the B-block spectrum, it is clear that AT&T is visually the dominant spectrum holder. When looking at the licensed population data, this is true as well.
AT&T dominates the licensed population (POPS) numbers as well, accounting for 274 million of the 312 million US States and Territories population. These population numbers relate to the 2010 Census. C Spire with 1.4 million licensed POPS and US Cellular (23 million) both have significant spectrum in their regional operations area with the 700 MHz B Block spectrum.
email us at: info@allnetinsights.com to request a copy of the above map
With the C-block spectrum, AT&T dominates the west coast and southeast but gives way to USCellular and other regional operators in the midwest.
Looking at the licensed population numbers, AT&T has about 15 million more licensed POPS with their C block spectrum than their B block spectrum. While USCellular has significantly less C block spectrum (6.8 million POPS compared to 22 million POPS). It is also apparent that T-Mobile has very limited ownership of B-block spectrum (262,000 POPS) and C-block spectrum (119,000 POPS). Clearly AT&T has the ability to combine their B and C block channels in many markets to create a 10x10 LTE channel. We will include a map in a future blog detailing AT&T's total 700 MHz (A/B/C) spectrum holdings as well as USCellular's total 700 MHz (A/B/C) spectrum holdings.
Most wireless carrier assessments are focused on the spectrum depth that each carrier controls. This is typically indicated by the number of MHz that a carrier controls (owns) either in a county or a market. Many evaluations are focused on the total MHz that a carrier owns although our Spectrum Ownership Analysis Tool and National Carrier reports break the spectrum depth down by both frequency band (700, Cellular, PCS, AWS, WCS, and EBS/BRS) as well as low-band, mid-band, and high-band. The band breakdowns are important because different bands have better or worse performance for coverage or in-building penetration. Understanding each carriers strengths or weakness for that criteria is important. In addition, since each carrier's LTE deployments have been targeted in specific frequency bands, the frequency band spectrum depth is an important metric to indicate the potential LTE channel size.
LTE Effective Spectrum is a much better indication of a carrier's usable spectrum depth than straight spectrum depth. LTE Effective Spectrum is the sum of the spectrum used by all of a carrier's potential LTE channels. We calculate each carrier's available LTE channels in our Mobile Carrier - Spectrum Ownership Analysis Tool by evaluating the contiguous spectrum that each carrier has in each frequency band.. In the tool, we detail the available LTE channels within each frequency band, but below we simplify the analysis here by listing only the quantity each channel size (5x5, 10x10,...). These LTE channel counts are provided at a CMA market level. To calculate the Effective LTE Spectrum value each of the channel widths (MHz) are summed. For Verizon in the Los Angeles CMA, four 10x10 channels and one 20x20 channel works out to: 4 x 10 + 4 x 10 + 1 x 20 + 1 x 20 = 120 MHz. Each channel is listed twice to reflect both transmit and receive (FDD) spectrum.
As you compare Verizon's Total Spectrum with their Effective LTE Spectrum at a market level, it is apparent that roughly 6% of Verizon's spectrum is not deployable for LTE. For Verizon, this lost spectrum relates to 2.5 MHz slices of cellular spectrum and 1 MHz slices of 700 MHz spectrum.
As you compare AT&T's Total Spectrum with their Effective LTE Spectrum at a market level, it is apparent that a much larger portion of AT&T's spectrum is not deployable for LTE. AT&T loses between 15% and 22% of there Total Spectrum on a market basis. This lost spectrum primarily relates the WCS spectrum (10MHz) AT&T dedicated as a guard band for satellite audio, along with 2.5 MHz slices of cellular spectrum and 1 MHz slices of 700 MHz spectrum.
As you compare T-Mobile's Total Spectrum with their Effective LTE Spectrum at a market level, it is apparent that very little of T-Mobile's spectrum is not deployable for LTE. T-Mobile typically loses 2% of their Total Spectrum on a market basis. This lost spectrum relates to the 6 MHz channels of 700 MHz spectrum only being used for 5x5 LTE. There are specific markets (San Diego @ 9%) where T-Mobile controls a 12.5 MHz channel which can only be deployed as a 10x10 LTE channel effectively losing ability to use the remaining 2.5 MHz unless a new acquisition would add adjacent spectrum.
We have left the analysis of Sprint's Lost Spectrum for another time because Sprint's combination of TDD and FDD spectrum makes their analysis significantly more complicated.
These charts reflect the Future data set from Allnet Insight's Spectrum Ownership Analysis Tool (February 2016 Version).
T-Mobile was quite active during the last quarter of 2015 closing deals to acquire low band (700 MHz A and B Block) spectrum. Green areas in the map above reflect areas where T-Mobile controls 12 MHz of spectrum providing for a 5x5 LTE channel. The Blue areas in North Dakota reflect T-Mobile ownership of both the A and B block, enabling the deployment of a 10x10 LTE channel. Below are the transactions that were announced during this time period:
It should be noted that during this same time period, T-Mobile assigned their 700 MHz A-Block spectrum in Alaska to Alaska Wireless Networks. T-Mobile had acquired this spectrum from Triad 700 in late 2014.
Using the 2010 Census Population for each of the US Counties, it can be seen that T-Mobile has over 200 million licensed pops (Population) where they have enough spectrum for a 5x5 low band channel, and 10 thousand pops where they have enough spectrum for a 10x10 low band channel. The 2010 Census set the total US population (states, districts, and territories) at 312 million.
This map and these transactions reflect the Future data set from Allnet Insight's Spectrum Ownership Analysis Tool (January 2016 Version).
How much backhaul capacity do you provide to each cell site for each 10MHz of LTE spectrum?
225 Mbps should be provided for each 10MHz of spectrum (75Mbps per sector)to prevent backhaul from creating a bottleneck.
What percentage of your sites utilize Verizon facilities for backhaul versus alternative backhaul providers?
Verizon has a significant cost advantage in the markets where they provide local telephone service by using internal resources for cell site backhaul.
What is your average monthly backhaul cost per cell site ($/Mbps) for the site using an alternative backhaul provider?
Locations where Verizon utilizes an alternative backhaul provider, the site expense for backhaul will begin to dominate the network cost of service. With the move to data, the site lease (average $1500/mo) is dominated by the backhaul lease ($8000/mo). This becomes more painful as you consider the need for doubling data capacity which could then double your site backhaul expense.
How do you account for the backhaul assets that are provided from your wireline subsidiaries to your wireless business? Are there any charge backs or internal bills based upon usage or capacity?
Now that Verizon has purchased Vodofone’s interest, this is less of an issue. However, concerns still arise that wireline assets are not properly valued for the benefit they provide the wireless business.
Are you deploying RRH (Remote Radio Head) technology? To what percentage of your sites?
Verizon has been the quietest of the national carriers on their plans to deploy RRH technology. It would make sense for Verizon to deploy RRH technology for their AWS and PCS LTE sectors so those sectors can have more similar coverage to their low band (700 MHz) sectors. In markets where Verizon is building an extensive small cell network uses their AWS and PCS frequencies, they will likely not use the RRH technology within the small cell network area.
What percentage of your sites are you converting to RRH (remote radio head) technology?
RRH technology takes radios that typically have been at ground level and places them on the towers behind the antennas. The RRH technology is useful in providing better coverage for the higher frequency spectrum. For AT&T, RRH technology would help mitigate the coverage differential between 700MHz and PCS, 700MHz and AWS, and 700MHz and WCS. If low band coverage (700MHz) were represented by a quarter, and mid band coverage (PCS) by a dime; moving the PCS channel to RRH technology would make the PCS coverage grow to the size of a nickel. This would allow AT&T to have similar capacity across a larger amount of their coverage.
Are you using RRH technology only for your high band spectrum or all spectrum except low band?
Applying RRH technology to low band spectrum in rural areas would fill in coverage holes but increasing coverage in urban areas with RRH technology would increase interference.
What percentage of your customers have a device that will operate on 700 MHz (band 17), AWS (band 4), and WCS (band 30)?
The iPhone 6s has an available version that supports the WCS band, but since not all of AT&T’s customers have a phone that supports their entire LTE spectrum, network coverage and capacity enhancements will not be experienced by the entire user base.
How much back haul capacity do you provide to each cell site for each 10 MHz of LTE spectrum?
To prevent back haul from being a bottleneck, 225 Mbps should be provided for each 10 MHz of spectrum (75Mbps per sector).
What is your average monthly back haul cost per cell site ($/Mbps)?
Site back haul costs would surprise many in the analyst community. When sites only supported voice calls, site leases (land and tower) dominated the operations expense. With the move to data, the site lease (average $1500/mo) is dominated by the back haul lease ($8000/mo). This becomes more painful as you consider the need for doubling data capacity which could then double your site back haul expense.
We are proud to announce the release of our September 2015 Spectrum Ownership Analysis Tool. In this release we have updated our data set to include the following August spectrum transactions among others:
Additionally with the September 2015 Spectrum Ownership Analysis Tool, we have added the Channel Block analysis module. This module will detail spectrum holdings for an individual carrier by individual channels. Previously, we have provided analysis modules which detail spectrum holdings by frequency band (700MHz, SMR/Cellular, PCS, AWS, WCS, and BRS/EBS), by band class (Low Band, Mid Band, and High Band), and by LTE band (Band 12, Band 17, Band 5) The new Channel Block analysis module provides the reader with a clear understand of what spectrum is held in a county. This is organized by specific colored channel block.
These graphs detail the peak capacity for downlink files and streaming video for the four major national wireless carriers plus Dish and USCellular. They illustrate the peak capacity on a market-by-market basis. In creating the graphs, I anticipate the usage of each wireless carrier’s total spectrum available, not just the spectrum they have dedicated to LTE at this time. These graphs allow you to see the significant capacity advantage that Sprint will have once they deploy their 2.5GHz spectrum. They also provide a market-by-market comparison of AT&T and Verizon capacity. You can see that AT&T has a capacity advantage versus Verizon in all Top 20 markets except Minneapolis-St. Paul. In addition, you can see the relatively low capacity that T-Mobile is able to offer and the capacity that Dish could provide after they launch a network.
I was able to construct these graphs by using Allnet Insights and Analytics Spectrum Ownership Analysis Tool determine the number of LTE channels that each carrier’s spectrum can support.
Assuming that each LTE channel had the follow achievable LTE Peak Data Rates:
These rates were applied to each of the carriers LTE channels to create a total peak downlink throughput. For all EBS/BRS spectrum (Sprint’s 2.5GHz spectrum), I assumed TDD (Time Division Duplex) LTE operation and each channel’s throughput was reduced to 75% to reflect the 75:25 downlink to uplink ratio for TDD operation. TDD LTE utilizes a single radio channel to both transmit to the mobile device (downlink) and transmit from the mobile device (uplink). In TDD LTE timeslots, similar to the wedges on the Wheel of Fortune, carry either downlink traffic or uplink traffic during that time interval. Since internet traffic is typically 75% downlink and 25% uplink, US operators dedicate 75% of the wedges to downlink and 25% to uplink. Most US spectrum bands are configured for FDD (Frequency Division Duplex) LTE, which utilizes two radio channels, one to transmit to the mobile device (downlink), and one to transmit from the mobile device (uplink).
For this issue of “How does our data compare?” we will look at the following statement from Andy Levin’s blog. Andy is T-Moble’s Senior Vice President of Government Affairs.
"AT&T’s practice of making promises it cannot keep is matched only by its ability to make claims that cannot withstand scrutiny. In the run-up to the 600 MHz auction, for instance, AT&T has derided the spectrum reserve as a “set aside” that “picks winners and losers.”
The claim is laughable: if the reserve is a set-aside, it is a set-aside that AT&T or Verizon can claim in nearly three-quarters of the country. The map below shows the markets where AT&T or Verizon can purchase all the spectrum blocks available in the upcoming 600 MHz auction."
AT&T Plays a Broken Record of Broken Promises – Andy Levin, T-Mobile, Sr VP, Government Affairs
Using Allnet Insights’ Spectrum Ownership Analysis Tool we are able to evaluate AT&T and Verizon’s low band spectrum ownership for all US Partial Economic Area (PEA) markets. We then created a geographic map. This map graphed 4 categories:
The purple areas from Allnet Insights’ map match the white areas from T-Mobile’s map with the exception of a rural PEA in northern Montana. These areas represent the PEA markets that both AT&T and Verizon will be limited in the ability to acquire addition low band spectrum. Clearly from Allnet Insights’ map you can see that there are many additional markets where either AT&T or Verizon is limited, but not both.
For this issue of “How does our data compare?” we will look at the following statement from Joan Marsh’s blog. Joan is AT&T's Vice President of Federal Regulatory.
"For AT&T, the restrictions will predominantly impact our ability to compete for spectrum in urban areas. Indeed, our preliminary analysis suggests that we will be restricted in all Top 50 markets except six (Cleveland, Phoenix, Virginia Beach, Charlotte, Raleigh and Greenville to be exact). The restrictions will therefore directly impact our ability to serve customers in the most data hungry markets like NY, Los Angeles, Chicago, San Francisco, Baltimore-DC, Philadelphia, Boston and Dallas."
T-Mobile’s Magenta Herring – Posted by Joan Marsh (AT&T)
Using Allnet Insights’ Spectrum Ownership Analysis Tool we are able to evaluate AT&T’s low band spectrum ownership for all US Partial Economic Area (PEA) market. For this evaluation, we want to see the markets where AT&T’s low band spectrum ownership is less than 45MHz. This would be a PEA market where AT&T would not expect restrictions in the Broadband Incentive Auction (600MHz).
For the Top 50 markets we have the same markets that Joan Marsh indicated in her blog. Also included in the screenshot is amount of low band spectrum that AT&T controls as well as its competitor’s spectrum holdings in the same markets. It is interesting to note that Verizon would be restricted in each of these 6 markets, and T-Mobile only has low band spectrum in 1 of these markets. In addition, we detail how the low band spectrum is divided between cellular spectrum and 700 MHz spectrum.
As we have demonstrated, our data provides similar results to AT&T’s analysis, but it also allows the other national wireless carriers (and over 600 smaller carriers) to be evaluated in the same manner.
Allnet Insights’ Spectrum Ownership Analysis Tool provides county-level spectrum depth and LTE channel configurations, as well as Partial Economic Area (PEA), Economic Area (EA), and Cellular Market Area (CMA) market level spectrum depth evaluations.
| Final Daily Digest
| Initial Daily Digest
| Market
| Call Sign
| Current Channel
| Proposed Channel
|
| Oklahoma City, OK
| KSBI(TV)
| 51
| 23
| ||
| Rome, GA
| WPXA(TV)
| 51
| 31
| ||
| Kansas City, MO
| KPXE-TV
| 51
| 30
| ||
| Dayton, OH
| WKEF(TV)
| 51
| 18
| ||
| Denver, CO
| KCEC(TV)
| 51
| 26
| ||
| Longview, TX
| KCEB
| 51
| 26
| ||
| Lansing, MI
| WLAJ-TV
| 51
| 25
| ||
| Bend, OR
| KOHD
| 51
| 18
| ||
| Providence, RI
| WJAR(TV)
| 51
| 50
|
| Final Daily Digest | Initial Daily Digest | Market | Call Sign | Current Channel | Proposed Channel |
| Oklahoma City, OK | KSBI(TV) | 51 | 23 | ||
| Rome, GA | WPXA(TV) | 51 | 31 | ||
| Kansas City, MO | KPXE-TV | 51 | 30 | ||
| Dayton, OH | WKEF(TV) | 51 | 18 | ||
| Denver, CO | KCEC(TV) | 51 | 26 | ||
| Longview, TX | KCEB | 51 | 26 | ||
| Lansing, MI | WLAJ-TV | 51 | 25 | ||
|
| Bend, OR | KOHD | 51 | 18 | |
| Providence, RI | WJAR(TV) | 51 | 50 |
| Final Daily Digest | Initial Daily Digest | Market | Call Sign |
Current Channel |
Proposed Channel |
| 12/13/2013 | Oklahoma City, OK | KSBI(TV) | 51 | 23 | |
| 9/4/2014 | Rome, GA | WPXA(TV) | 51 | 31 | |
| 9/4/2014 | Kansas City, MO | KPXE-TV | 51 | 30 | |
| 12/23/2014 | 9/18/2014 | Dayton, OH | WKEF(TV) | 51 | 18 |
| 12/16/2014 | 10/17/2014 | Denver, CO | KCEC(TV) | 51 | 26 |
| 12/8/2014 | Longview, TX | KCEB | 51 | 26 |
