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`BEFORE THE PATENT TRIAL AND APPEAL BOARD
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`International Business Machines Corporation
`Petitioner,
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`v.
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`EnvisionIT, LLC
`Patent Owner
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`Patent No. 8,438,221
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`Title: BROADCAST ALERTING MESSAGE AGGREGATOR/GATEWAY
`SYSTEM AND METHOD
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`Inter Partes Review No. IPR2017-01247
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`DECLARATION OF ART BOTTERELL IN SUPPORT OF PETITION FOR
`INTER PARTES REVIEW OF U.S. PATENT NO. 8,438,221
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`IBM EX. 1003
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`TABLE OF CONTENTS
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`Page
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`I.
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`II.
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`INTRODUCTION ........................................................................................... 1
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`BACKGROUND AND QUALIFICATIONS ................................................. 1
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`III. LEGAL PRINCIPLES ..................................................................................... 3
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`IV. CLAIM CONSTRUCTION ............................................................................ 3
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`V.
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`PRIOR ART..................................................................................................... 4
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`A. Anticipation ........................................................................................... 4
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`B. Obviousness ........................................................................................... 4
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`VI. U.S. PATENT NO. 8,438,221 ......................................................................... 6
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`VII. LEVEL OF ORDINARY SKILL IN THE ART ............................................. 8
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`VIII. EMERGENCY WARNING ............................................................................ 9
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`A.
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`The Emergency Alert System ............................................................... 9
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`B. Use of the Internet as a Network for Emergency Alerting ................. 26
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`IX. CLAIM 19 IS OBVIOUS OVER THE LITERATURE DESCRIBING
`EMERGENCY MESSAGING SYSTEMS ................................................... 30
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`X.
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`CLAIM 19 IS ANTICIPATED BY REIGER OR, ALTERNATIVELY,
`OBVIOUS OVER THE COMBINATION OF REIGER AND NSTC ........ 40
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`1. I, Art Botterell, declare as follows:
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`I.
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`INTRODUCTION
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`2.
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`I have been retained by International Business Machines Corporation
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`(“IBM”) in connection with its petition for inter partes review of U.S. Patent No.
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`8,438,221 (“the ’221 patent”). The statements set forth in this declaration are
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`based on my own personal knowledge. I am being compensated at my usual rate
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`for the time spent preparing this declaration, and my compensation is not
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`contingent on the outcome of any matter or on any of the opinions provided below.
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`I have no financial interest in this matter.
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`3.
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`The opinions set forth in this declaration are my own. My opinions
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`are based on many years of experience in the field of emergency management and
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`warning and on the materials cited herein.
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`II.
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`BACKGROUND AND QUALIFICATIONS
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`4.
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`I have spent most of my professional life working on emergency
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`warnings and preparedness. Since 1995, I have been an Emergency Information
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`Systems Consultant, specializing in public alert and warning as of 2001. In this
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`role I provide emergency information system planning and training to national and
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`international government agencies. As part of this role, I designed the Common
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`Alerting Protocol and led its standardization and adoption efforts.
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`5.
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`My other emergency warning experience includes my current
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`position as a Senior Emergency Services Coordinator in the California Governor’s
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`Office of Emergency Services, my 2013-2014 position as Technical Director of
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`Disaster Management Systems for Raydant International, Ltd., my position as a
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`Disaster Management Consultant for Carnegie Mellon University in Silicon Valley
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`from 2010-2013, my position as Special Technical Expert for the Joint
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`Interoperability Test Command from 2009-2010, my position as the Community
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`Warning System Manager in the Office of the Sheriff in Contra Costa County,
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`California from 2006-2009, my position as an Emergency Information Systems
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`Project Manager in the Governor’s Office of Emergency Services in California
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`from 1999-2000, my position as a Public Affairs Specialist for the Federal
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`Emergency Management Agency (FEMA) from 1995-1997, and my position as
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`Assistant Chief in the Telecommunications Division of the Governor’s Office of
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`Emergency Services in California from 1988-1995.
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`6.
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`For all of these positions, I used both my skills in emergency warning
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`theory and implementation and my software-writing skills. For example, as part of
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`my position as Assistant Chief in the Telecommunications Division in California, I
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`developed that office’s first website.
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`7.
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`I have significant experience in developing and maintaining software
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`systems. I am proficient in Java, C, Python, JavaScript, HTMS5, XML, and other
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`languages. I was instrumental in the Federal Government’s testing and
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`implementation of IPAWS, the Integrated Public Alert & Warning System run by
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`the Federal Emergency Management Agency (FEMA).
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`8.
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`I sit on the Board of Humanity Road, an international Non-
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`Government Organization dedicated to investigating the use of social media in
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`disasters. I was an instructor in the University of California at Berkeley Extension
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`Emergency Management Program from 1996-1998.
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`III. LEGAL PRINCIPLES
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`9.
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`I am not an attorney. For purposes of this declaration, I have been
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`informed about certain aspects of the law that are relevant to my analysis and
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`opinions, as set forth below.
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`IV. CLAIM CONSTRUCTION
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`10.
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`I understand that in a proceeding such as this, the claims of an
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`unexpired patent are given their broadest reasonable interpretation as understood
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`by one of ordinary skill in the art, described below, and consistent with what the
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`patentee says in the specification.
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`11.
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`I also understand that under a broadest reasonable interpretation,
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`words of a claim must be given their plain meaning—i.e., the ordinary and
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`customary meaning given to the word by those of ordinary skill at the time of the
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`invention—unless such meaning is inconsistent with the specification.
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`12.
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`I understand that some claims are independent, and that these claims
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`are complete by themselves. Other claims refer to these independent claims and
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`are “dependent” on those independent claims. The dependent claims include all of
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`the limitations of the claims on which they depend.
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`V.
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`PRIOR ART
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`13.
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`I have been instructed to assume for purposes of my analysis that
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`February 13, 2004, is the relevant date for determining what is “prior art.” In other
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`words, I should consider as “prior art” anything publicly available prior to
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`February 13, 2004. I further understand that, for purposes of this proceeding in the
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`United States Patent Trial and Appeal Board, only patents and documents that have
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`the legal status of a “printed publication” may be relied on as prior art.
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`A.
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`Anticipation
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`14.
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`I understand that a patent claim is anticipated if a single prior art
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`document describes every element of the invention, either expressly or inherently.
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`B.
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`Obviousness
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`15.
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`I understand that a patent claim is obvious if the differences between
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`what is set forth in the claims and what is disclosed in the prior art are such that the
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`subject matter as a whole would have been obvious to a person of ordinary skill at
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`the time that the patent application was filed, in this case, February 13, 2004.
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`16.
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`I understand that a person of ordinary skill in the art is presumed to
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`have knowledge of all of the relevant prior art.
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`17.
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`I understand that as part of my analysis of whether a given patent
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`claim is obvious, I should consider: (i) the scope and content of the prior art; (ii)
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`the level of ordinary skill in the art; (iii) the differences between what is claimed
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`and the prior art; and (iv) any secondary considerations that may indicate that the
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`claims are not obvious.
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`18.
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`I understand that the level of ordinary skill in the art depends on the
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`type of problems encountered in the art, prior art solutions to these problems, the
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`rapidity with which innovations are made in the art, the sophistication of the
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`technology, and the educational level of active workers in the field.
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`19.
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`I understand that secondary considerations which bear on the
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`obviousness of a patent claim include: (i) commercial success of a product due to
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`the merits of what is provided in the patent claim; (ii) a long-felt but unsolved need
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`for the solution provided by the patent claim; (iii) unsuccessful attempts by others
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`to find the solution provided by the patent claim; (iv) copying by others of what is
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`claimed in the patent; (v) unexpected results that arise from what is provided in the
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`patent claim; (vi) industry skepticism regarding what is provided in the patent
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`claim; (vii) praise from others in the field; and (viii) simultaneous invention by
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`others.
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`VI. U.S. PATENT NO. 8,438,221
`The petition for inter partes review challenges claim 19 of the ’221
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`20.
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`patent. I have reproduced claim 19 below:
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`A method of public service broadcast messaging to a broadcast target area,
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`the method comprising:
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`receiving over an input interface a broadcast request including a broadcast
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`agent identification, a geographically defined broadcast target area, and a
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`broadcast message from one of a plurality of coupled broadcast agent
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`message origination systems;
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`storing a geographically defined broadcast message jurisdiction for a
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`broadcast agent;
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`verifying an authority of the broadcast agent identification including an
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`authority of the originating broadcast agent to send the broadcast message
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`to the broadcast target area by comparing the stored geographically defined
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`broadcast message jurisdiction for the originating broadcast agent with the
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`broadcast target area associated with the broadcast message in the
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`broadcast request; and
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`transmitting the broadcast message over an output interface to one or more
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`coupled broadcast message networks providing broadcast message alerting
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`service to at least a portion of the broadcast target area.
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`21.
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`I understand that the text of the claim is to be given its plain and
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`ordinary meaning to a person of ordinary skill in the art in light of the
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`specification. I have been asked by counsel to assume for purposes of this
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`proceeding that the term “broadcast” means “pertaining to transmission to all
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`recipients in a target area and not to an identified recipient” and that the term
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`“broadcast message” means “a message that is intended for transmission to all
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`recipients in a target area and not an identified recipient.” In my opinion, the
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`remaining terms of the claim each have a plain and ordinary meaning that is
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`apparent by the language used in the claim.
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`22.
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`The ’221 patent specification describes a standard emergency
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`broadcast messaging system. According to the patent, this system, called the
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`“PLBS,” is “unlike other emergency messaging services that require the recipient’s
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`identity, a predetermined fixed delivery location, and usually the payment of a
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`service fee.” (col. 6, ll. 17-19.)
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`23.
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`For purposes of this proceeding, I highlight some of the pertinent
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`features of the system described in the ’221 patent:
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`(cid:120) The messages are transmitted in the patent’s system using cell-
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`broadcast. (col. 6, ll. 23-24.) Cell broadcast is a system in which a
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`message is sent to all of the active cell phones that are serviced by a
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`given “cell.” Dr. Surati, in his expert report on this matter, describes
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`the cell broadcast system in more detail.
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`(cid:120) The system described in the patent uses an internet-based interface
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`for the input and processing of messages, which is convenient
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`because “Almost any computer can use PLBS-SB without any
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`modification at all.” (col. 18, ll. 34-37.)
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`(cid:120) Processing of the message may include the comparison of an inputted
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`broadcast message agent and the area to which the message is
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`intended to target, on the one hand, to pairs of agents and areas that
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`are pre-defined in a “Footprint Library” on the other, so that, for
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`example, messages may be sent quickly without the need to define
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`allowed areas for given agents at the time of message transmission.
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`(col. 8, ll. 55-64.)
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`(cid:120) The system “stores past messages and is capable of retrieving them
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`for re-transmission.” (col. 9, ll. 60-62.)
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`VII. LEVEL OF ORDINARY SKILL IN THE ART
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`24.
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`I have read the definition of a person of ordinary skill in the art
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`proposed by Dr. Surati in this proceeding and agree with his definition, which I
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`reprint here for convenience. Based on this definition, I am a person of ordinary
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`skill in the art at least due to my extensive experience designing and maintaining
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`emergency alerting systems. I was also a person of ordinary skill in the art in the
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`2003-2003 timeframe relevant to this proceeding.
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`25.
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`The ’221 patent is directed to a system of and method for location-
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`based broadcasting. Accordingly, a person of ordinary skill in the art to whom the
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`’221 patent is directed would have the following qualifications: Either a
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`bachelor’s degree in computer science, engineering, or a related field with some
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`practical experience designing, developing, or maintaining broadcast messaging
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`systems such as emergency alerting systems; or significant practical experience
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`designing, developing, or maintaining broadcast messaging systems, such as
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`emergency alerting systems. This person would have access to and/or collaborate,
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`as needed, with individuals in other areas, such as computer or software
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`programming, cellular network technology, and public alert or warning systems.
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`VIII. EMERGENCY WARNING
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`26. As I explained above, I have devoted much of my professional life to
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`emergency preparedness and warning. As such, I have observed first-hand the
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`development of warning systems in the United States, and have had an active role
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`in helping to develop those systems.
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`A.
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`The Emergency Alert System
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`27.
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`The Emergency Alert System (“EAS”) was introduced in 1994 by the
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`FCC. A person of ordinary skill in the art would have been aware of the literature
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`regarding the EAS and other emergency alerting documents discussed in this
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`section and would have looked to these documents for guidance in developing new
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`broadcast systems. The document at Exhibit 1010, “FCC 1994,” describes the
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`rules that were in place when the EAS was first mandated in this country. In 1994,
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`the EAS was an emergency messaging system designed primarily for
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`dissemination of emergency messages by the President, but that was also designed
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`to facilitate dissemination of state and local emergency messages. (FCC 1994 at ¶¶
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`28, 29.) The FCC rules in 1994 required the dissemination of federally-initiated
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`messages by EAS “participants.” (Id. at ¶¶ 40-65.) The required participants were
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`radio stations, TV stations, and cable networks. (Id.) The participation of other
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`transmission networks, including satellite communications systems, personal
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`pagers, telephone and cellular carriers was voluntary. (Id. at ¶¶ 66-76.) In other
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`words, the participants were chosen to reach as many people as technically feasible
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`in 1994.
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`28.
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`The FCC 1994 document reflects an understanding of some basic
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`principles of emergency warning:
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`(1) Having an effective emergency warning systems is essential: “effective
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`emergency warning systems can reduce life and property loss and []
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`effectiveness and timeliness are clearly linked.” (FCC 1994 at ¶ 28.)
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`(2) Effective warnings systems should incorporate many forms of
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`broadcasting: “No one transmission system could, in isolation, sufficiently
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`achieve our goals for EAS.” (Id. at ¶ 34.)
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`(3) Effective warning systems should include a single aggregator of
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`messages that may be disseminated by the various transmission systems:
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`“The extraordinary diversity of technologies available to be used in an
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`alerting system suggests a need for an architecture that can accommodate
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`all the proposed media distribution schemes.” (Id. at ¶ 35)
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`(4) Effective warning systems should evolve and take advantage of new
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`technologies: “We encourage the development of these consumer products
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`which enhance the access of Americans to instantaneous public safety
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`messages. We will work to provide industry incentives by reducing
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`unnecessary regulatory burdens.” (Id. at ¶ 76.)
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`(5) Emergency warnings are most effective when they target only relevant
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`audiences: “The new digital EAS codes will allow system participants to
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`relay EAS alerts to narrowly targeted audiences.” (Id. at ¶ 94.)
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`29.
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`In broad strokes, the EAS worked as follows: an emergency message
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`would be sent over a digital encoder/decoder device from an emergency
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`broadcaster. (Id. at ¶¶ 77- 114.) The EAS provides for five different types of
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`emergency broadcast originators, such as “EAN,” which indicates that it is a
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`federal message, or “NWS,” which means that it is National Weather Service
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`message. Each message includes four parts: (1) a preamble and header codes; (2)
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`an audio attention signal; (3) the message; and (4) an End of Message code. The
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`header codes included the following information: the “originator,” which identifies
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`the type of emergency broadcast originator that transmitted the message, the “event
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`code” which identifies the type of event which the warning concerns, the “location
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`code,” which indicates the geographic area affected by the event and which should
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`be warned about the event, and the call sign or other identification of the broadcast
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`station or other entity that broadcasted the message. (Id. at ¶ 79, 85 of 119.)
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`30.
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`Important to this proceeding, the EAS mandated that the
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`encoder/decoder machine that received, processed, and transmitted messages store
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`at least ten “preselected codes.” (FCC 1994 at ¶ 91.) These preselected codes
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`were examples of the header codes discussed above that were pre-approved for
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`transmission. For example, one stored header code would be a transmission from
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`the federal government (the EAN originator), that identified a federal emergency
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`(i.e., a terrorist threat), a location code targeting the entire country, and an
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`identification of the federal office that issued the warning. When the
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`encoder/decoder of an EAS participant received a message with this pre-selected
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`and stored header code, it would transmit the message immediately because the
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`header code “matched” one of the preselected header codes. (Id. at ¶ 93.) The
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`preselected codes therefore provided a means by which the encoder/decoder
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`verified the authority of the broadcast agent to send a particular type of message to
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`a specific target location.
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`31. Also important to this proceeding is the way that the location codes
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`were defined. The location codes were also known as “Federal Information
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`Processing System” or “FIPS” numbers, defined by the U.S. Department of
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`Commerce in the National Institute of Standards and Technology, and the
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`“Specific Area Message Encoder” or “SAME” coding scheme . (Id. at ¶¶ 70, 80;
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`89 of 119.) Using the FIPS codes and SAME coding scheme, it was possible to
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`specify an area as small as 1/9th of a county within a state. (Id. at ¶ 80.) FIPS
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`codes also allowed for unique codes for alerting specific locations such as schools
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`or hospitals, or an area as small as a block or a single household. (Id.)
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`32. One further point is that the encoder/decoder used in the EAS had to
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`be capable of storing messages that were sent and received. (Id. at ¶ 91.) FCC
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`1994 specified that the encoder/decoder had to have the capacity to store two
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`minutes of recorded messages. (Id.) However, a person of ordinary skill in the art
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`would have known that one goal of the emergency alert system was to collect data
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`on emergency alerts, and therefore, it was desirable to store all messages for later
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`retrieval.
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`33. U.S. Patent No. 5,995,553 to Crandall discloses an encoder/decoder
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`that was designed to be used as part of the EAS. (Crandall at col. 4, ll. 37-38.)
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`Crandall is found at Exhibit 1012. Crandall provides evidence of how a person of
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`ordinary skill in the art would have understood some of the features of the EAS.
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`For example, Crandall explains that the FIPS code used to identify the location of
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`an event also corresponds to the location that receives a broadcast message. (Id. at
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`¶¶ 36-38.) Crandall also explains that the encoder/decoder “stores voice messages
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`for playback or for re-broadcast,” which means that the stored messages are stored
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`for long term use. (Id. at 4:37-38.)
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`34.
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`The EAS underwent several rounds of modernization following its
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`inception in 1994. For example, in 2000, the FCC mandated that EAS equipment
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`be capable of processing messages automatically, without human intervention.
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`(See Ex. 1011, 65 FR 21657.)
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`35.
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`In November 2000, the Working Group on Natural Disaster
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`Information Systems Subcommittee on Natural Disaster Reduction issued a report
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`titled “Effective Disaster Warnings” (“NSTC”). That document is found at Exhibit
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`1013. I know many of the people that are listed as part of the working group (page
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`5) and as people who helped with the preparation of the NSTC document (page
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`56). Based on their professional experience, it is my opinion that many of these
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`people were persons of ordinary skill in the art as of the publication of this
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`document. The NSTC document provides recommendations on how the
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`emergency alerting system should be improved. NSTC does not suggest
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`replacement of EAS, and instead suggests that new systems be used together with
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`EAS. (NSTC at 28.) Its four general recommendations are:
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`First: “A public/private partnership is needed that can leverage
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`government and industry needs, capabilities, and resources in order to
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`deliver effective disaster warnings…”
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`Second: “One or more working groups, with representatives from
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`providers of different types of warnings in many different agencies…should
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`develop and review on an ongoing basis:
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`(cid:120) A single, consistent, easily-understood terminology that can be
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`used as a standard across all hazards and situations…
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`(cid:120) A single, consistent suite of variables to be included in a
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`general digital message…
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`(cid:120) The mutual needs for precise area-specific locating systems for
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`Intelligent Transportation Systems and Emergency Alert
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`Systems to determine where resources can be leveraged to
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`mutual benefit.
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`(cid:120) The potential for widespread use of the Radio Broadcast Data
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`System and other technologies that do not interrupt
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`commercial programs for transmitting emergency alerts.
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`(cid:120) Cost effective ways to augment existing broadcast and
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`communication systems to monitor warning information
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`continuously and to report appropriate warnings to the people
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`near the receiver.”
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`Third: “A standard method should be developed to collect and relay
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`instantaneously and automatically all types of hazard warnings and reports
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`locally, regionally, and nationally for input into a wide variety of
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`dissemination systems…”
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`Fourth: “Warnings should be delivered through as many
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`communication channels as practicable so that those users who are at risk
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`can receive them whether inside or outside, in transportation systems, or at
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`home, work, school, or shopping, and such…”
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`(Id. at 7.)
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`36.
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`The NSTC document was disseminated to the emergency warning
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`community by email. It was also posted in various locations online, including on
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`the web page of the Subcommittee on Disaster Reduction of the White House’s
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`National Science and Technology Council. The online version of this document
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`had a red cover, and therefore, the document became known in emergency
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`management circles as “The Red Book.”
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`37.
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`I do not recall how I first received a copy of the NSTC document,
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`however I recall that I received it multiple times by email from various people
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`shortly after it was first published. The NSTC document was considered an
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`important document in the emergency preparedness community. For example, it
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`was discussed prominently in the periodical “Natural Hazards Observer” in July
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`2001, in an article written by Peter L. Ward, the then-chair of the Working Group
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`on Natural Disaster Information Systems. This article is found at Exhibit 1014.
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`The article stated that the NSTC document was available online at
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`www.nnic.noaa.gov/CENRINDIS_rev_Oct27.pdf. It appears, however, that this
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`link no longer works. The Observer is, and as of 2001 was, a periodical that is
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`released periodically and is read by persons interested in emergency alerting.
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`38.
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`The NSTC document mirrors FCC 1994 in its highlighting of the
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`important principles of emergency warnings.
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`(1) Having an effective emergency warning systems is essential:
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`“People at risk from disasters, whether natural or human in origin, can
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`take actions that save lives, reduce losses, speed response, and reduce
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`human suffering when they receive accurate warnings in a timely
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`manner.” (NSTC at 6. )
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`(2) Effective warnings systems should incorporate many forms of
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`broadcasting: “Warnings should be delivered through as many
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`communication channels as practicable so that those users who are at
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`risk can receive them whether inside or outside, in transportation
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`systems, or at home, work, school, or shopping, and such.” (Id. at 7.)
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`(3) Effective warning systems should include a single aggregator of
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`messages that may be disseminated by the various transmission
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`systems: “A standard method should be developed to collect and relay
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`instantaneously and automatically all types of hazard warnings and
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`reports locally, regionally, and nationally for input into a wide variety
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`of dissemination systems.” (Id.)
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`(4) Effective warning systems should evolve and take advantage of new
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`technologies: “Research in support of mobile users using geolocation
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`systems such as GPS coupled with wireless systems, should seek to
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`develop warning and information capabilities similar to that becoming
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`available to stationary Internet users.” (Id. at 33.)
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`(5) Emergency warnings are most effective when they target only
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`relevant audiences: “Warnings will be most effective when they can be
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`targeted directly to the people at risk.” (Id. at 26.)
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`39.
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`Importantly for this proceeding, NSTC suggests the use of the
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`internet to collect and issue warnings. (NSTC at 24.) NSTC also lists many ways
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`that specific areas may be defined as a target for a broadcast message, including:
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`FIPS codes from EAS, zip codes, area codes, the transmitter range of TV or radio,
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`targeting all wireless telephones that are within a cell (i.e., via cell broadcast), and
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`using pairs of latitude and longitude to define a polygon. (Id. at 26.)
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`40. Also important for this proceeding, NSTC suggests the use of cell
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`broadcast to send messages “to all telephones within a cell or specific location
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`without knowing which specific telephones are currently there.” (Id. at 34.)
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`41.
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`Following issuance of the NSTC report, the Partnership for Public
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`Warning (“PPW”) arose as a not for profit group of emergency managers,
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`technology providers and academics concerned with the state of public warning
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`systems in the U.S., and determined to implement the recommendations in the
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`NSTC document. The PPW formed in hopes of becoming a Federal Advisory
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`Committee, with initial underwriting and staff support from the MITRE
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`Corporation. The PPW’s mission was to “Bring together representatives of all the
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`many and diverse stakeholders to work toward a resolution of national standards,
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`protocols and priorities that will assure the right information is delivered in a
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`timely manner to people at risk from disaster, be it natural or people induced, so
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`that they are enabled to act knowledgeably to save lives, reduce losses and speed
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`recovery.” I was one of seventeen founding Trustees of the PPW. Other members
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`of the PPW board represented FEMA, NOAA, NASA, the FCC, the US Geological
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`Survey, NTIA, and the State of Alaska, as well as technology providers and social
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`scientists.
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`42.
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`PPW published a report titled “Developing A Unified All-Hazard
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`Public Warning System” in November 25, 2002 (“PPW report”). That document is
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`at Exhibit 1008. The PPW report was published online and submitted to FEMA,
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`the National Weather Service and other government agencies.
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`43.
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`Just like NSTC, the PPW report suggests improvements to the EAS.
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`And, also just like NSTC, the PPW report suggests that updated be made to the
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`existing EAS, and does not suggest replacement of EAS. (PPW report at 33 of 47.)
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`The PPW report also mirrors FCC 1994 in its highlighting of the important
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`principles of emergency warnings.
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`(1) Having an effective emergency warning systems is essential:
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`“Improved warning systems and procedures will clearly save significant
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`numbers of lives every year, will reduce losses from natural and man-
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`made disasters, and will speed recovery.” (PPW report at 3 of 47.)
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`(2) Effective warnings systems should incorporate many forms of
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`broadcasting: An “Important Element of the Warning Process:
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`Transmission to a wide variety of warning distribution systems:
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`22 of 47
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`Redundant and robust transmission along local and national backbones
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`for input to a wide variety of distribution systems.” (Id. at 14 of 47.)
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`(3) Effective warning systems should include a single aggregator of
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`messages that may be disseminated by the various transmission
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`systems: “We also recommend the implementation of a unified, all-
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`hazard, public warning message protocol, so that industry can modify
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`existing hardware and build new hardware to receive warnings.” (Id. at
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`4 of 47.)
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`(4) Effective warning systems should evolve and take advantage of new
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`technologies: A “Lesson About Technology Development: Actively
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`promote continued evolution of warning system design to accommodate
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`changes in hazard risk assessment, our understanding of the hazard and
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`all its risks, communication technologies, and constantly changing
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`demographic characteristics of populations at risk.” (Id. at 20 of 47.)
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`(5) Emergency warnings are most effective when they target only
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`relevant audiences: “Recent developments … make it possible to
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`identify and then alert only persons in the area affected.” (Id. at 32 of
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`47.)
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`44.
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`In the late 1990s, I had the idea of a Common Alerting Protocol
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`(“CAP”) to serve as an interoperability layer for public warning systems. This
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`protocol would allow a single inputted message to be processed and disseminated
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`by many different communications networks, including the networks involved in
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`EAS. CAP was meant to be implemented in an “aggregator” to collect emergency
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`messages for dissemination. I discussed this idea in various chat rooms and on
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`email lists, particularly on the Networks in Emergency Management (“NETS”)
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`email list which I moderated, and which was initially hosted by Simon Frasier
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`University in Vancouver, British Columbia. The membership of the NETS group
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`was a diverse collection of emergency management and public safety professionals
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`and network-technology enthusiasts from the very early days of broad adoption of
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`the internet and the world wide web. The membership of the NETS eventually
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`became the CAP working group.
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`45.
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`The CAP working group, with me as its original convener, developed
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`the CAP, an early version of which is included as Exhibit 1007 (“CAP 0.5”). I
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`originated CAP and remained involved with its development through its broad
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`adoption by the emergency warning community. CAP was endorsed by PPW early
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`on in its development. (PPW report at 34 of 47.)
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`46.
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`In or near June 2002 I published CAP 0.5 on www.incident.com, a
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`website which I owned in the early 2000s and which was visited by a variety of
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`interested parties from government (natio