Derived From: FCC WTB Broadband Opportunities Wireless Broadband Services
"Wireless broadband services transmit data and information at high speeds using wireless links. Such data and information can include a wide range of content and applications that are accessed over the Internet, including web sites, e-mail, instant messaging, music, games, or data stored on a corporate server. Wireless broadband Internet access services can be provided using mobile, fixed, or portable technologies. These technologies can transmit data over short, medium, or long ranges, and can use licensed spectrum and/or unlicensed devices. Some of the wireless broadband Internet access technologies in use today include CDMA 1x EV-DO (EV-DO), Wideband CDMA (WCDMA) with High Speed Downlink Packet Access (HSDPA), and Wi-Fi.
"Mobile broadband technologies enable subscribers to access the Internet while traveling at high speeds via a mobile handset, a smartphone, or a wireless modem card connected to a laptop computer or PDA. Mobile broadband technologies used by carriers in the United States, such as EV-DO and WCDMA/HSPDA, are capable of transmitting data at speeds ranging in excess of 400 kbps.
"Technologies such as Orthogonal Frequency Division Multiplexing (OFDM) enable providers to offer wireless broadband services that are often considered "portable" in nature. Providers using licensed spectrum in the BRS/EBS and WCS spectrum currently offer services that enable their subscribers to access the Internet with portable, "plug-and-play" modem devices that attach to a desktop or laptop computer and do not require a direct line-of-sight between the transmitter and the receiver. Customers can transport these modem devices to other locations in the provider's coverage area where a network signal is available, though they may not have the ability to maintain a connection while traveling at high speeds with handoff. Most devices are currently manufactured in accordance with vendor-specific, proprietary standards; however, standardized, 802.16 WiMAX equipment is being developed. Typical downstream speeds for portable wireless broadband services range from 768 kbps to 1.5 Mbps, and networks can extend five to 30 miles.
"Wireless broadband Internet access services offered over fixed networks allow consumers to access the Internet from a fixed point while stationary and often require a direct line-of-sight between the wireless transmitter and receiver. These services have been offered using both licensed spectrum and unlicensed devices. For example, thousands of small Wireless Internet Services Providers (WISPs) provide such wireless broadband at speeds of around one Mbps using unlicensed devices, often in rural areas not served by cable or wireline broadband networks. These networks typically have a reach of one to five miles, and customers must have a rooftop antenna that can establish a line-of-sight connection with the network transmitter.
"Wireless Local Area Networks (WLANs) provide wireless broadband access over shorter distances and are often used to extend the reach of a "last-mile" wireline or fixed wireless broadband connection within a home, building, or campus environment. The range of a typical WLAN is approximately 100 to 300 feet. The most prevalent WLAN equipment is manufactured in accordance with the IEEE 802.11 family of standards, commonly known as "Wi-Fi," short for wireless fidelity. Wi-Fi networks use unlicensed devices and operate under Part 15 of the FCC's rules applicable to frequency hopping systems in the 2.4 and 5 GHz bands. Wi-Fi networks can transfer data at speeds of up to 11 Mbps for 802.11b and up to 54 Mbps for 802.11a and 802.11g. They can be designed for private access within a home or business, or can be used for public Internet access at "hot spots" such as restaurants, coffee shops, hotels, airports, convention centers, and city parks.
"Personal area network technologies, such as Bluetooth, ZigBee, and Ultra-Wideband (UWB), are used to transmit data over very short distances, such as a few meters or across a room. They are often used to provide interconnectivity among mobile devices and between mobile and desktop devices, serving as a replacement for wires and cables that connect different electronic devices together. The data transfer rates range from around 300 kbps with ZigBee to 100 Mbps with UWB."
- Radio Acts of 1912 and 1927. Fed Gov takes over spectrum management. Allocates use between private and govt users. Emergency and military needs have priority. Airwaves are a scarce public resource licensed for private use under a public interest standard. Cannot broadcast without a license.
- The Radio Act of 1927, Pub. L. No. 632, Feb. 23, 1927, 69th Cong
- Communications Act of 1934: Combined elements of the Radio Act of 1927 in Title III and elements of ICC common carrier regulation in Title II
- Auctions Authority
- 1993 Omnibus Budget Reconciliation Act (Auctions)
- The Balanced Budget Act of 1997
- Auction Reform Act of 2002
- Commercial Spectrum Enhancement Act of 2004
- Deficit Reduction Act of 2005
- Evan Kwerel and Alex Felker, Using Auctions to Select FCC Licensees, FCC Working Paper 16 (1985)
US Frequency Allocation Chart Image
NTIA Office of Spectrum Management: The United States Frequency Allocation Chart is provided as a Portable Document Format (*.pdf) file. There are many free software packages available on the Internet that enable you to view the chart.
- U.S. Frequency Allocation Chart as of October 2003 [ PDF]
- Text equivalent version of the U.S. Frequency Allocation Chart as of October 2003 [ PDF ]
- Background Paper on Radio Frequency Spectrum Allocation Chart [ HTML ]
Derived From: FTC Municipal Broadband Report, p. 12
Wireless broadband services are subject to minimal regulation by the FCC. Wireless technologies that use unlicensed radio band spectrum (such as Wi-Fi and Wi MAX) are subject to technical requirements in the FCC’s rules that are intended to prevent interference with FCC licensed services.54 Advanced wireless services that use licensed spectrum (such as cellular phones, PDAs, and wireless modem cards) are subject to the relevant FCC rules for the particular licensing regime.55 The issue of whether wireless broadband will be subject to additional regulation has not been fully resolved.
The FCC’s Wireless Broadband Access Task Force addressed this issue in 2005 and recommended that the FCC “apply a deregulatory framework – one that minimizes regulatory barriers at both the federal and state levels – to wireless broadband services.”56 Accordingly, the Task Force recommended that the FCC consider classifying wireless broadband as an “information service.”57 Under the Communications Act, “information services” are not subject to the Communications Act’s Title II common carrier requirements for “telecommunications services.”58 As noted by the Task Force, however, even with a deregulatory framework, it is likely that certain regulatory requirements will be imposed on wireless broadband technologies.59 One factor that may affect the regulation of wireless broadband is the possibility of federal legislation that would overhaul the Communications Act in order to address the convergence of telecommunications technologies.
Wireless as a Substitute for Wirelines Broadband
- Prepared Remarks of FCC Chairman Tom Wheeler, "The Facts and Future of Broadband Competition," 1776 Headquarters, Washington DC, Sept. 4, 2014 ("it seems clear that mobile broadband is just not a full substitute for fixed broadband, especially given mobile pricing levels and limited data allowances.")
|20 Hz - 20 kHz||Human hearing|
|2600 Hz||Tone used to control the telephone network in the 1970s Blue Box Phone Phreak cases.|
|10 kHz||Wavelength is 30 km. Waves penetrate significant distance into water. Use: Communication with submarines.|
|100 kHz||Wavelength 3 km. Use: Navigation|
|1000 kHz||Wavelength: 300 meters. AM Broadcasting|
|10 MHz||Wavelength: 30 meters. Interesting property: ionospheric reflection. Use: CB radio, HF broadcasting|
|55-88 MHz||TV Channels 2-6 - White Space Spectrum|
|72 - 76 MHz||Radio Control Radio Service "A one-way, short-distance, non-voice radio service for on/off operation of devices at places distant from the operator. "|
|88-108 MHz||FM Broadcasting|
|100 MHz||Wavelength: 3 meters. Use: FM Broadcasting. TV broadcasting.|
|151 - 154 MHz||Multi Use Radio Service "Private, two-way, short-distance voice or datacommunications service for personal or business activities of the general public. "|
|152 - 159 MHz||"Rural Radiotelephone Service is a fixed radio service where a wireless technology is used to provide telephone service to subscribers in remote areas. Conventional Rural Radiotelephone stations may employ standard duplex, analog technology similar to that of pre-cellular mobile telephone service. "|
|162 MHz||NOAA Weather Radio|
|175-215 MHz||TV Channels 7-13 White Space Spectrum|
|216 - 217 MHz||Low Power Radio Service " The LPRS is a private, one-way short-distance communication service providing auditory assistance to persons with disabilities, persons who require language translation, and persons in educational settings, health care assistance to the ill, law enforcement tracking services in cooperation with a law enforcement agency, and point-to-point network control communications for Automated Marine Telecommunications System (AMTS) coast stations. Two-way voice communications are prohibited. "|
|218 - 219 MHz||General Mobile Radio Service "short-distance communication service designed for licensees to transmit information, product, and service offerings to subscribers and receive interactive responses within a specified service area. Mobile operation is permitted. Rules permit both common carrier and private operations, as well as one- and two-way communications. Potential applications include ordering goods or services offered by television services, viewer polling, remote meter reading, vending inventory control, and cable television theft deterrence."|
|220 MHz||" There are 2 megahertz of spectrum allocated for the 220 MHz Service. Initially spectrum was divided into 200 base side channels (220 MHz to 221 MHz) and 200 mobile side channels (221 MHz to 222 MHz) with the channels assigned in pairs and each base channel one megahertz below its corresponding mobile channel. The 200 base side channels are each spaced 5 KHz apart and were initially awarded on a first come first served site specific basis with mutually exclusive applications filed on the same day awarded via lottery. Because of the large number of applications filed in the first few weeks that the band became available, an application freeze was placed into effect. The freeze remained in effect for various reasons until new licensing rules became effective, and the channels were grouped into blocks of spectrum and awarded via geographic area auctions with the geographic area licensees required to provide protection to incumbents ( Rule 90.763 ). "|
|402-405 MHz||"The Medical Implant Communications Service (MICS) is an ultra-low power, unlicensed, mobile radio service for transmitting data in support of diagnostic or therapeutic functions associated with implanted medical devices. The MICS permits individuals and medical practitioners to utilize ultra-low power medical implant devices, such as cardiac pacemakers and defibrillators, without causing interference to other users of the electromagnetic radio spectrum."|
|406 MHz||" On July 1, 2003, the FCC authorized the use of Personal Locator Beacons (PLBs). PLBs will provide a distress and alerting capacity for use by the general public in life-threatening situations in remote environments after all other means of notifying search and rescue (SAR) responders (e.g., telephone, radio) have been exhausted. For example, if you are a hiker, camper, backpacker, kayaker, etc. and are out of cell phone range, a PLB, which is a small transmitter that sends out a personalized emergency distress signal, is a highly effective and internationally recognized way to summon help. "|
|417 - 890 MHz||TV Channels 14-83 - White Space Spectrum|
|454 - 460 MHz||"Rural Radiotelephone Service is a fixed radio service where a wireless technology is used to provide telephone service to subscribers in remote areas. Conventional Rural Radiotelephone stations may employ standard duplex, analog technology similar to that of pre-cellular mobile telephone service. "|
|462 - 467 MHz||"Family Radio Service (FRS) is one of the Citizens Band Radio Services. It is used by family, friends and associates to communicate within a neighborhood and while on group outings and has a communications range of less than one mile. You can not make a telephone call with an FRS unit. You may use your FRS unit for business-related communications. "|
|476 - 493 MHz||"The Offshore Radiotelephone Service allows Commercial Mobile Radio Service (CMRS) providers to use conventional duplex analog technology to provide telephone service to subscribers located on (or in helicopters en route to) oil exploration and production platforms in the Gulf of Mexico. "|
|600 MHz||White Space|
|700 MHz||FCC 700 MHz Page. Service to be auctioned in 30 MHz bands|
|800 MHz||Cell Phones Part 22.|
|901-902 MHz||Narrowband PCS|
|902-928 MHz||LMS Part 15 Ultra Wide Band Shared between Location and monitoring service and Part 15 operations. Power limit: 1W to 6dbi Antenna or + 36dBm (4W EIRP). Frequency Hopping or DSSS. 26 MHz total band. Cordless Phones.|
|929 MHz||Private Land Mobile Paging " Not-for-profit paging that serves a licensee's internal communications needs. "|
|Narrowband PCS " Used to provide such services as two-way paging and other text-based services. Licensees also use the spectrum to offer wireless telemetry which is the monitoring of mobile or fixed equipment in a remote location. "|
|1000 MHz||Wavelength: 30 cm. Use: Cellular radio, top of UHF TV band|
|1559- 1610 MHz||GPS|
|1.62 GHz||Satellite Phone L Band|
|1710 - 1755 MHz||Advanced Wireless Service|
|1800-1900 MHz||Cell Phones|
|1850 - 1990 MHz||Broadband PCS " Broadband PCS is primarily used to provide a variety of services, such as digital mobile phones and wireless internet access. These services are also called mobile telephone services and mobile data services. " 47 C.F.R. Part 24|
|2155 MHz||Advanced Wireless Service|
|2200 MHz||3G Cell Phones|
|2.30 - 2.36 GHz||Wireless Communications Service "The Wireless Communications Service is primarily used to provide fixed, mobile, radiolocation or satellite communication services to individuals and businesses. " Satellite Phone narrow band|
|Part 15 SuperNet Unlicensed Spectrum short-range, high speed (54Mbps) wireless digital. Large bandwidth (83.5 MHz). Can be used for last mile access, wireless networking, and line of sight over distance. Unaffected by weather. Bluetooth.|
|2495 - 2690 MHz||Broadband Radio Service " formerly known as the Multipoint Distribution Service (MDS)/Multichannel Multipoint Distribution Service (MMDS), is a commercial service. In the past, it was generally used for the transmission of data and video programming to subscribers using high-powered systems, also known as wireless cable. However, over the years, the uses have evolved to include digital two-way systems capable of providing high-speed, high-capacity broadband service, including two-way Internet service via cellularized communication systems. Such services provide consumers integrated access to voice, high-speed data, video-on-demand, and interactive delivery services from a wireless device. "|
|2496-2690||"The Educational Broadband Service (EBS) , formerly known as the Instructional Television Fixed Service (ITFS), is an educational service that has generally been used for the transmission of instructional material to accredited educational institutions and non-educational institutions such as hospitals, nursing homes, training centers, and rehabilitation centers using high-powered systems. Our recent revamping of the EBS spectrum will now make it possible for EBS users to continue their instructional services utilizing low-power broadband systems while also providing students with high-speed internet access."|
|2600-2700 MHz||MMDS Range 35 miles. Not as vulnerable to the weather. Line of sight required. See ITFS proceeding. Sprint 30%; Nextel 40%.|
|3.55-3.65 Ghz||Citizens Broadband Radio Service Amendment of the Commission’s Rules with Regard to Commercial Operations in the 3550- 3650 MHz Band, Report and Order and Second Further Notice of Proposed Rulemaking, 30 FCC Rcd. 3959 (2015) (“3.5 GHz Order”)|
|3.7 - 4.2 GHz||C-band Satellite Down Link The C-band satellite downlink, also used by fixed service stations|
|4.9 GHz||Public Safety Band|
|5.0 - 5.15 GHz||Air traffic control operations|
|5.091 - 5.25||"WRC-95 allocated this band on a primary basis to fixed-satellite (Earth-to-space) service (FSS uplinks) to provide feeder links for non geostationary satellite systems in the mobile satellite service (MSS) on a coprimary basis with government aeronautical radionavigation."|
|5.15-5.25 GHz||Part 15 SuperNet Unlicensed Spectrum short-range, high speed wireless digital. Indoor Use and campus links. 50mW. OFDM. 100 MHz total per band, 4 channels each band, 20 MHz spacing.|
|5.25-5.35 GHz||Part 15 SuperNet Unlicensed Spectrum 250mW in to 6dBi Antenna or +30 dBm (1W EIRP). OFDM. 100 MHz total per band, 4 channels each band, 20 MHz spacing.|
|5.47 - 5.725||WRC|
|5.725-5.825 GHz||Part 15 SuperNet Unlicensed Spectrum short-range, high speed wireless digital. Can be used for last mile access, wireless networking, and line of sight over distance. 1W in to 6 dBi Antenna or + 36dBm (4W EIRP). Cordless phones.|
|5850 - 5925 MHz||" On December 17, 2003 the Commission adopted a Report and Order establishing licensing and service rules for the Dedicated Short Range Communications (DSRC) Service in the Intelligent Transportation Systems (ITS) Radio Service in the 5.850-5.925 GHz band (5.9 GHz band). The DSRC Service involves vehicle-to-vehicle and vehicle-to-infrastructure communications, helping to protect the safety of the traveling public. It can save lives by warning drivers of an impending dangerous condition or event in time to take corrective or evasive actions. The band is also eligible for use by non-public safety entities for commercial or private DSRC operations. "|
|5.925 - 6.425 GHz||C-band Satellite Up Link The C-band satellite uplink, also used by fixed service stations|
|6.525 - 6.875 GHz||Governmental, industrial, communications carrier, and transportation licensees use this general-purpose fixed microwave band.|
|10 GHz||Wavelength: 3 cm. Properties: higher ranges affected by intense rain. Use: Satellite Data and TV, point to point communications, radar|
|10.55 - 10.6 GHz||fixed microwave links, backhaul, connecting cell sites with the central switch in a cellular system...|
|10.7 - 11.7 GHz||terrestrial fixed links . KU Band Satellite.|
|12.2 - 12.7 GHz||Multichannel Video Distribution and Data Service multichannel video, data, or digital audio service. DBS Satellite|
|12.75 - 13.25 GHz||KU Band Satellite.|
|13.75 - 14.5 GHz||KU Band Satellite.|
|17.3 - 17.8 GHz||KU Band Satellite.|
|17.7 - 20.2 Ghz||Ka Band Non Geostationary Satellite Orbit|
|24+ GHz||Bands 24 GHz and above. Data rates of up to 155 Mbps. Suffer signal loss in adverse weather. Greater requirement for line of sight transmission.|
|24 GHz||24 GHz Fixed Wireless Formerly Digital Electronic
Fixed wireless. 10 year license term. Licensed in 40 MHz pairs, can use contiguous bandwidth up to 200 MHz through aggregation.
|28 GHz||LMDS Auction|
|39 GHZ||Wireless Cable|
|12.2-12.7 GHz||Non-geostationary satellite orbit fixed-satellite service|
|47.2 to 48.2 GHz||Strospheric Platforms Skystation|
|64-71 Ghz||Unlicensed. Use of Spectrum Bands Above 24 GHz for Mobile Radio Services, et al., Report and Order and Further Notice of Proposed Rulemaking, 31 FCC Rcd. 8014, 8062 ¶ 125 (2016).|
|92-95 GHz||FCC OET will reportedly issue an NOI in late 2000 concerning possible uses of band including licensed and unlicensed use. Band is currently used for military communications.|
- Fifth Generation Wireless Network and Device Security, Notice of Inquiry, PS Docket 16-353 (Dec. 16, 2016) ~RESCINDED
- Fed Reg Notice. Comments due April 24, 2017; Replies due May 23, 2017. ("In this document, the Commission seeks comment on new security issues that implementation of the fifth generation (5G) wireless network and device security presents to the general public, and on the current state of planning to address these issues. The inquiry, focusing on cybersecurity for 5G, raises fundamental questions about scope and responsibilities for such security. The goal of this proceeding is to begin a conversation on the state of 5G wireless network and device security and to foster a dialogue on the best methods for ensuring that the 5G wireless networks and devices used by service providers in their operations are secure from the beginning.")
- Fifth Generation Wireless Network and Device Security, PS Dkt 16-353, Order (Feb. 3, 2017) ("In the Spectrum Frontiers Report and Order, the Commission directed the Office of Engineering and Technology, the Public Safety and Homeland Security Bureau (PSHSB), and the Wireless Telecommunications Bureau to release “not later than October 31, 2016” a Notice of Inquiry. 1 On December 16, 2016, the PSHSB purported to respond to this delegation by releasing a notice of inquiry, which was published in the Federal Register on January 23, 2017.2 Pursuant to the Bureau’s existing authority, including Section 1.113 of the Commission’s rules, the undersigned hereby sets aside and rescinds that notice of inquiry. The notice of inquiry will have no legal or other effect or meaning going forward and, as a result, there is no longer a comment cycle associated with that document and we hereby terminate this docket")
- Sweeping FCC Inquiry on Cyber and IoT, Wiley Rein (Dec. 19, 2016)
- Use of Spectrum Bands Above 24 GHz For Mobile Radio Services; Establishing a More Flexible Framework to Facilitate Satellite Operations in the 27.5-28.35 GHz and 37.5-40 GHz Bands; Petition for Rulemaking of the Fixed Wireless Communications Coalition to Create Service Rules for the 42-43.5 GHz Band; Amendment of Parts 1, 22, 24, 27, 74, 80, 90, 95, and 101 To Establish Uniform License Renewal, Discontinuance of Operation, and Geographic Partitioning and Spectrum Disaggregation Rules and Policies for Certain Wireless Radio Services; Allocation and Designation of Spectrum for Fixed-Satellite Services in the 37.5-38.5 GHz, 40.5-41.5 GHz and 48.2-50.2 GHz Frequency Bands; Allocation of Spectrum to Upgrade Fixed and Mobile Allocations in the 40.5-42.5 GHz Frequency Band; Allocation of Spectrum in the 46.9-47.0 GHz Frequency Band for Wireless Services; and Allocation of Spectrum in the 37.0- 38.0 GHz and 40.0-40.5 GHz for Government Operations, GN Docket No. 14-77, IB Docket No. 15-256, RM-11664, WT Docket No. 10-112, IB Docket No. 97-95, Report & Order and Further Notice of Proposed Rulemaking, 31 FCC Rcd 8014 (rel. July 14, 2016) (Spectrum Frontiers Report & Order or Spectrum Frontiers Further Notice).
- “ITU towards ‘IMT for 2020 and Beyond,’” ITU (5G Standardization expected to be completed by 2020)
- THE NEXT GENERATION OF WIRELESS: 5G LEADERSHIP IN THE U.S., CTIA (Feb. 9, 2016).
- Thomas K. Sawanobori, The Next Generation of Wireless: 5G Leadership in the U.S., CTIA (Feb. 9, 2016)
- Internet of Things
- How 5G Can Help Municipalities Become Vibrant Smart Cities, Accenture Strategy (Jan. 12, 2017)
- Wireless Connectivity Fuels Industry Growth and Innovation in Energy, Health, Public Safety, and Transportation, Deloitte (Jan. 2017)
- 5 G Testing
- Diana Goovaerts, “Verizon Announces 5G Customer Trials in 11 Cities with 5G Forum,” WIRELESS WEEK (Feb. 22, 2017)
Derived From: FCC International Broadband Data Report (Third)
"Wireless providers are deploying new, faster, and more spectrally-efficient technologies for mobile broadband, known as 4G LTE. 6 American consumers have been quick to adopt 4G LTE technology, securing the United States’ position as the world leader in LTE adoption. In the 15th Annual Mobile Wireless Competition Report, the Commission observed that there were no commercial LTE launches in the United States as of August 2010. 7 By the end of 2011 though, U.S. LTE subscribers numbered 5.6 million, accounting for 64% of the roughly 9 million LTE subscribers worldwide. 8 Deloitte predicts that U.S. investment in 4G networks during 2012-2016 could be $25-$53 billion. 9 Aggressive LTE network build-out by U.S. providers has been a driving force in customer take-up and we anticipate that this trend will continue. Analysts anticipate that globally, LTE subscribership will reach at least 400 million by 2016. We will continue to follow global LTE trends for future IBDRs."
"With this progress, the United States has regain ed its role as a global leader in and around mobile broadband. More than 80% of smartphones sold globally run on U.S. operating systems, up from less than 25% three years ago. 11 As the first adopters of 4G LTE, the U.S. is the global test bed for wireless technology and services. In 2011, venture in vestment in Internet start-ups reached its highest levels since 2001. 12 The apps economy, a $20 billion industry that barely existed five years ago, has created nearly 500,000 jobs."
- 4G LTE Security for Mobile Network Operators. Cyber Security and Information Systems Information Analysis Center
- NISTIR 8071: LTE Architecture Overview and Security Analysis
Broadband Plan Recommendations
- Recommendation 4.1 The federal government, including the FCC , the National Telecommunications and Information Administration (NTIA ) and Congress, should make more spectrum available for existing and new wireless broadband providers in order to foster additional wireless wireline competition at higher speed tiers.
- Recommendation 4.2 The FCC and the U.S. Bureau of Labor Statistics (BLS ) should collect more detailed and accurate data on actual availability, penetration, prices, churn and bundles offered by broadband service providers to consumers and businesses, and should publish analyses of these data.
- Recommendation 4.11: The FCC should clarify interconnection rights and obligations and encourage the shift to IP-to-IP interconnection where efficient.
- Recommendation 5.1: The FCC should launch and continue to improve a spectrum dashboard.
- Recommendation 5.2: The FCC and the National Telecommunications and Information Administration (NTIA ) should create methods for ongoing measurement of spectrum utilization.
- Recommendation 5.3 The FCC should maintain an ongoing strategic spectrum plan including a triennial assessment of spectrum allocations.
- Recommendation 5.4: Congress should consider expressly expanding the FCC 's authority to enable it to conduct incentive auctions in which incumbent licensees may relinquish rights in spectrum assignments to other parties or to the FCC .
- Recommendation 5.5 Congress should consider building upon the success of the Commercial Spectrum Enhancement Act (CSEA ) to fund additional approaches to facilitate incumbent relocation.
- Recommendation 5.6 Congress should consider granting authority to the FCC to impose spectrum fees on license holders and to NTIA to impose spectrum fees on users of government spectrum.
- Recommendation 5.7 The FCC should evaluate the effectiveness of its secondary markets policies and rules to promote access to unused and underutilized spectrum.
- Recommendation 5.8 The FCC should make 500 megahertz newly available for broadband use within the next 10 years, of which 300 megahertz between 225 MHz and 3.7 GHz should be made newly available for mobile use within five years.
In order to meet
- Recommendation 5.8.1 The FCC should make 20 megahertz available for mobile broadband use in the 2.3 GHz Wireless Communications Service (WCS ) band, while protecting neighboring federal, non-federal Aeronautical Mobile Telemetry (AMT ) and satellite radio operations.
- Recommendation 5.8.2 The FCC should auction the 10 megahertz Upper 700 MHz D Block for commercial use that is technically compatible with public safety broadband services.
- Recommendation 5.8.3 The FCC should make up to 60 megahertz available by auctioning Advanced Wireless Services (AWS ) bands, including, if possible, 20 megahertz from federal allocations.
- Recommend ti on 5.8.4 The FCC should accelerate terrestrial deployment in 90 megahertz of Mobile Satellite Spectrum (MSS ).
- Recommendation 5.8.5 The FCC should initiate a rulemaking proceeding to reallocate 120 megahertz from the broadcast television (TV ) bands, including
- Update rules on TV service areas and distance separations and revise the Table of Allotments to ensure the most efficient allotment of six-megahertz channel assignments as a starting point.
- Establish a licensing framework to permit two or more stations to share a six-megahertz channel.
- Determine rules for auctions of broadcast spectrum reclaimed through repacking and voluntary channel sharing.
- Explore alternatives—including changes in broadcast technical architecture, an overlay license auction, or more extensive channel sharing—in the event the preceding recommendations do not yield a significant amount of spectrum.
- Take additional measures to increase efficiency of spectrum use in the broadcast TV bands.
- Recommendation 5.9 The FCC should revise Parts 74, 78 and 101 of its rules to allow for increased spectrum sharing among compatible point-to-point microwave services..
- Recommendation 5.10 The FCC should revise its rules to allow for greater flexibility and cost-effectiveness in deploying wireless backhaul.
- Recommendation 5.11 The FCC , within the next 10 years, should free up a new, contiguous nationwide band for unlicensed use.
- Recommendation 5.12 The FCC should move expeditiously to conclude the TV white spaces proceeding.
- Recommendation 5.13 The FCC should spur further development and deployment of opportunistic uses across more radio spectrum.
- Recommendation 5.14 The FCC should initiate proceedings to enhance research and development that will advance the science of spectrum access.
- Recommendation 5.15 The FCC and NTIA should develop a joint roadmap to identify additional candidate federal and non-federal spectrum that can be made accessible for both mobile and fixed wireless broadband use, on an exclusive, shared, licensed and/or unlicensed basis.
- Recommendation 5.16 The FCC should promote within the International Telecommunication Union (ITU ) innovative and flexible approaches to global spectrum allocation that take into consideration convergence of various radio communication services and enable global development of broadband services.
- Recommendation 5.17 The FCC should take into account the unique spectrum needs of U.S. Tribal communities140 when implementing the recommendations in this chapter.
- Recommendation 7.6 NSF, in consultation with the Federal Communications Commission (FCC), should consider funding a wireless testbed for promoting the science underlying spectrum policy making and a testbed for evaluating the network security needed to provide a secure broadband infrastructure.
- Recommendation 7.7 The FCC should start a rulemaking process to establish more flexible experimental licensing rules for spectrum and facilitate the use of this spectrum by researchers.
FCC Busts Pirate Radio Boat.
Goodbye RDI (Editor Note: A friend was involved in this boat).
Spectrum Policy Task Force
Derived From: Kenneth Carter, Ahmed Lahjouji, Neal McNeal, Unlicensed and Unshackled: A Joint OSP-OET White Paper on Unlicensed Devices and Their Regulatory Issues, OSP Working Paper 39 p 11 (May 2004)
In a more recent effort to address spectrum access issues, the FCC established a Spectrum Policy Task Force in June 2002. The Task Force was composed of senior staff members from several FCC Bureaus and Offices who were asked to assist the FCC in identifying and evaluating changes in spectrum policy necessary to reflect advances in technology that were likely to increase the public benefits from spectrum use. In November 2002, the Task Force released its findings. Its report noted that, while certain frequency bands are heavily used, many bands either are not in use in all geographic areas or are only heavily used part of the time. Furthermore, the Task Force determined, that these characteristics served to limit access to available spectrum and that such limitations are a more significant problem than the physical scarcity of spectrum itself. The report identified three unique approaches to spectrum policy based on the establishment of a set of legal rights: 1) an exclusive use approach; 2) a commons approach; and 3) a command-and-control approach. 19
The Task Force urged that the FCC evolve its spectrum policy from its traditional "command and control" model to a more market-oriented approach to achieve spectral efficiency. The Task Force set out four key recommendations to accomplish this policy reform. Recommendations include:
1. Migrate toward more flexible, consumer-oriented policies. The Task Force recommended that the Commission evolve its spectrum policy toward more flexible and market-oriented spectrum policies that will provide incentives for users to migrate to more technologically innovative and economically efficient uses of spectrum.
2. Adopt quantitative standards to provide interference protection: interference temperature. The Task Force recommended the creation of a quantitative standard for acceptable interference that provides both greater certainty for licensees and greater access to unused spectrum for unlicensed operators.
3. Improve access through the time dimension. The Task Force found that new technological developments now permit the Commission to increasingly consider the use of time, in addition to frequency, power and space, as an added dimension permitting more dynamic allocation and assignment of spectrum usage rights. This would provide access to unused or underused spectrum through time-sharing of spectrum between multiple users and lead to more efficient use of the spectrum resource.
4. Shift from "command and control" model to exclusive and commons models. The Task Force recommended that the Commission base its spectrum policy on a balance of three spectrum rights models: an exclusive use approach, a commons approach and, to a more limited degree, a command-and-control approach. While the command-and-control model currently dominates today's policy, the Task Force recommended altering the balance to provide greater use of both the exclusive use and commons models throughout the radio spectrum and limiting the use of the command-and-control model to those instances where there are compelling public policy reasons, such as some public safety applications. To the extent feasible, more spectrum should be identified for both licensed and unlicensed uses under flexible rules and existing spectrum that is subject to more restrictive command-andcontrol regulation should over time be transitioned to these models.
On of the most notable of the Task Force's recommendations, from an unlicensed device perspective, is that it urges the adoption of an "interference temperature." The new metric would allow the FCC to quantify and manage interference on a band-by-band basis, by establishing limits on the noise environment in which receivers would be required to operate. To the extent, however, that the interference temperature in a particular band is not reached, the report argues, users who emit energy below that temperature could operate more flexibly - with the interference temperature serving as the maximum cap on the potential RF energy any device could introduce into the band.
Use of Federal Spectrum
- U.S. DEP’T OF COM., Quantitative Assessments of Spectrum Usage (Nov. 2016),
- Presidential Memorandum -- Expanding America's Leadership in Wireless Innovation June 14, 2013
- STATEMENT OF ACTING CHAIRWOMAN CLYBURN ON PRESIDENTIAL MEMORANDUM PROMOTING EFFICIENT USE OF SPECTRUM BY FEDERAL AGENCIES by Statement. OCMC http://hraunfoss.fcc.gov/edocs_public/attachmatch/DOC-321612A1.doc
- STATEMENT OF COMMISSIONER ROSENWORCEL ON PRESIDENTIAL MEMORANDUM PROMOTING EFFICIENT USE OF SPECTRUM BY FEDERAL AGENCIES by Statement. OCJR http://hraunfoss.fcc.gov/edocs_public/attachmatch/DOC-321613A1.doc
- Skorup, Brent, Reclaiming Federal Spectrum: Proposals and Recommendations (May 28, 2013).
- Radio spectrum is that portion of the electromagnetic spectrum used for communications.
- What spectrum can be used for depends on its physical characteristics
- High or low frequency
- Amount of bandwidth
- It is assumed that spectrum is finite (researchers working on smart radios are trying to challenge this)
- Frequency is the number of times per second a radio wave undergoes a complete cycle
- Hertz (Hz) = 1 cycle per second
- Kilohertz (kHz) = 1 thousand cycles per second
- Megahertz (MHz) = 1 million cycles per second
- Gigahertz (GHz) - 1 billion cycles per second
- Wavelength = (speed of light) / (frequency)
- Amplitude = signal strength or power
- Interference: Effect of unwanted energy due to one or a combination of emissions, radiations, or inductions under reception in a radio communications system, manifested by any performance degradation, misinterpretation, or loss of information which could be extracted in the absence of such unwanted energy. 47 CFR 2.1
- Bandwidth: Amount of spectrum a signal occupies
- Dramatic cost reduction of wireless broadband technology. Increasing processing power; new modulation techniques making better use of spectrum; improvements in antenna and radio technology; architectural improvements.
- New Builds
- Advantage over wireline: physical trench from street or drop from poles for each house. Physical connect at street by installer. Cost of drop cabling. Mode of wireline modem. Onsite installation.
- Wireless: shared wireless network access point - no physical connection. Cost of wireless modem. No on site visit (truck role).
- But wireless unlikely to have enough capacity to compete for full service video for 5-7 years?? (Stagg Newman in 2006)
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