by George Socha
Vol. 101 No. 3 (2017) | Bold and Persistent Reform | Download PDF Version of Article
âArtificial Intelligence in the Lawâ should be the tagline for whatâs next in legal technology, if coverage in the legal press is any guide. Lawyers and vendors alike are extolling AIâs virtues and touting how the use of AI will revolutionize the practice of law â or they are warning that AI is going to usher in the end of lawyers, the practice of law, and even the judiciary as we know them.
All too often, missing from these proclamations and ruminations is any meaningful description of what AI is, where it came from, and what it is likely to mean for bench and bar at a practical level in the short to medium term. The concept of artificial intelligence was introduced in 1955. The basic idea is that computers might be able to learn, and that they might be able to do things, make decisions, and exercise judgment based on what they learn. That concept has morphed over time, jogged down some dead-end alleys along the way, and led to more consternation â as well as more optimistic anticipation â than is presently warranted by the reality of AI.
Examples of various nonlegal implementations of artificial intelligence can be found all around us. Well-known applications include Pandoraâs suggestions for songs you might want to hear, where âevery Pandora station evolves with your tastesâ; the Nest Learning Thermostat, which âautomatically adapts as your life and the seasons changeâ; and Tesla cars, which, with the Model 3, now âhave the hardware needed for full self-driving capability at a safety level substantially greater than that of a human driver.â Artificial intelligence is beginning to penetrate the legal world, but it still is at the âinnovatorâ and âearly adopterâ stages, having not yet crossed the chasm into âearly majority.â1 An early entrant is Canadian startup Ross Intelligence, which offers a legal research tool built on top of IBMâs Watson and is being used by at least 14 law firms. AI also is being used to identify relevant authorities in briefs, create nondisclosure agreements, automate the review and approval of contracts, and facilitate real estate due diligence.
Artificial intelligence (depending on oneâs definition of AI) also is used for discovery, most notably as the technology behind âpredictive codingâ and âtechnology assisted review.â AI helps to find the story in the data and to evaluate ESI to suggest key issues, confidentiality, and overall case relevance.
The first electronic computer was introduced in 1940, followed the next year by the first programmable computer and then in 1944 by the first programmable American computer. The first commercial computer, UNIVAC, appeared on the market in 1950.2 In 1955, John McCarthy, an assistant professor of mathematics at Dartmouth College, and three other scientists proposed a summer research project on a novel topic that they called âartificial intelligenceâ:
The study is to proceed on the basis of the conjecture that every aspect of learning or any other feature of intelligence can in principle be so precisely described that a machine can be made to simulate it. An attempt will be made to find how to make machines use language, form abstractions and concepts, solve kinds of problems now reserved for humans, and improve themselves.3
In early 1956, two Carnegie Mellon University researchers constructed a working artificial-intelligence machine, which one of them described as âa thinking machine.â4 That summer the Dartmouth Artificial Intelligence Conference was held, launching the field of artificial intelligence.5 At the same time, McCarthy began developing LISP, the first artificial intelligence programming language, and from 1958 to 1962 he implemented the language and began applying it to problems of artificial intelligence.6
In 1963, artificial intelligence research got a financial boost as the Advanced Research Program Association (ARPA, now known as DARPA) began to fund a range of AI and computer science efforts. The first recipients of this funding included MIT, Stanford, and Carnegie Mellon.7
Advances ensued, accompanied, of course, by failures and setbacks. Here are just a few of the advances:
⢠1961: Checkers program, capable of learning its own evaluation function, beats Connecticut state checkers champion.
⢠1965: Development began on DENDRAL, one of the first applications of artificial intelligence to problems of scientific learning, specifically helping organic chemists identify unknown organic molecules.
⢠1966-1972: Mobile robot Shakey, using limited ability to perceive and model its environment, performed tasks such as planning, finding routes, and rearranging objects.
⢠1979: The Stanford Cart â a cart with four small bicycle wheels, electronic motors, and a television camera â successfully crossed a chair-filled room without human intervention.
⢠1997: IBMâs Deep Blue beat world chess champion Garry Kasparov.
⢠2016: Googleâs AlphaGo beat top professional Go player.
For an initial definition of artificial intelligence, letâs return to the researcher who coined the phrase, John McCarthy: According to his 2007 definition, artificial intelligence is:
the science and engineering of making intelligent machines, especially intelligent computer programs. It is related to the similar task of using computers to understand human intelligence, but AI does not have to confine itself to methods that are biologically observable.8
Examples of artificial intelligence in action include, said McCarthy, playing games, recognizing speech, understanding natural language, powering expert systems, and organizing information into categories based on inputs provided to the artificial intelligence program.9 General definitions of artificial intelligence are easy to find, such as this one from Technopedia: âan area of computer science that emphasizes the creation of intelligent machines that work and react like humans . . . .â10
What actually constitutes artificial intelligence turns out to be surprisingly difficult to define, however. In a 2016 New York Times Magazine article, Gideon Lewis-Krause pointed out one of the challenges: âArtificial intelligence, we believe, must be something that distinguishes HAL from whatever it is a loom or wheelbarrow can do. The minute we can automate a task, we downgrade the relevant skill involved to one of mere mechanism . . . . The goal posts for âartificial intelligenceâ are thus constantly receding.â11
The results of a recent survey conducted by Pegasystems highlight the confusion over what artificial intelligence encompasses.12 Of 6,000 survey respondents, 72 percent said they understood what AI is, 17 percent said they did not, and 11 percent were unsure. When asked to choose from a list of possible AI capabilities, however, the respondents greatly underestimated which ones are available today or are becoming increasingly available (see Table 1 above). Respondents also underestimated the extent to which they already use some form of AI devices and services. Thirty-four percent of respondents said they have never interacted with AI technology, yet when asked about particular AI devices and services, 84 percent said they used one or more of the technologies listed (see Table 2 at left).
Clearly, AIâs tendrils reach far today. Additional examples of self-proclaimed artificial intelligence offerings include the following (and this list is just a small sampling):
⢠Entertainment recommendations: Pandora; Netflix; Spotify.
⢠Smart home devices: Nest thermostats; Lifx color-changing light bulbs; Augustâs Smart Lock.
⢠Recommendations from retailers: Amazon; Target; Watson used by Macyâs; Under Armour; 1-800-Flowers.com; The North Face; Sears.
⢠Smart home assistants: Amazonâs Echo; Mark Zuckerbergâs Jarvis; Googleâs Home.
⢠Automobiles: Tesla, with self-driving hardware on all cars; Googleâs Waymo self-driving car project; Toyotaâs Yui concept car.
⢠Customer service: Cogito for customer service, sales centers, and managerial support; DigitalGenius to propose answers to KLM agents; the WeChat Messenger bot deployed by China Merchant Bank.
⢠AI-driven concierge services: John Paulâs Digitally-Enhanced Concierge; Pega Self-Service Advisor; Meziâs humanassisted travel agent bot.
There is no small amount of tooth-gnashing over the idea that AI will eliminate or at least reduce the need for lawyers (and judges). More measured articles are appearing in well-regarded publications such as The Atlantic (âRise of the Robolawyers â How legal representation could come to resemble TurboTaxâ), The New York Times (âA.I. Is Doing Legal Work. But It Wonât Replace Lawyers, Yet.), and the ABA Journal (âHow artificial intelligence is transforming the legal professionâ). More dire predictions are easy to find as well: âLawyers could be the next profession to be replaced by computersâ at CNBC; âArtificial intelligence closes in on the work of junior lawyersâ in The Financial Times; and âWhy Artificial Intelligence Might Replace Your Lawyerâ at OZY.
While it is unlikely that AI will replace lawyers any time soon, artificial intelligence is being deployed to help lawyers become more effective. Some examples follow (although some may use a rather flexible definition of AI). Canadian startup ROSS Intelligence (www.rossintelligence.com/), founded in 2014, touts itself as âthe worldâs first digital attorney.â ROSS is a legal research tool built on top of IBMâs Watson. According to the company, âROSS understands natural language legal questions and provides expert answers instantly . . . .â Law firms using ROSS include BakerHostetler; Bryan Cave; Dentons; Dickinson Wright; Fennemore Craig; K&L Gates; Kobre & Kim; Latham & Watkins; Salazar Law; Sedgwick; Simpson Thacher; Van Horn Law Group; von Briesen & Roper; and Womble Carlyle.
Casetext (casetext.com/) has an AIdriven offering called CARA (Case Analysis Research Suite), which evaluates submitted briefs to identify relevant authorities. CARA is used at over 100 law firms.
Artificial intelligence from Neota Logic (www.neotalogic.com) powers Perfect NDA, a tool for creating nondisclosure agreements. The companyâs tools power Foley & Lardnerâs Global Risk Solutions (www.foley.com/grs/), a Foreign Corrupt Practices Act compliance app, as well as Compliance HRâs Navigator Suite, a human resources app developed in conjunction with Littler Mendelson.
LawGeex (www.lawgeex.com) has an âartificial intelligence solution [that] helps legal teams automate the review and approval of contracts.â Reed Smith uses an AI platform from RAVN System (www.ravn.co.uk/) for real estate due diligence.
Artificial intelligence has entered the discovery arena as well. Many claim that âpredictive codingâ and âtechnology assisted reviewâ are forms of artificial intelligence. There is a credible argument for the proposition that both supervised machine learning and unsupervised machine learning (one, the other, or both of which form TAR, depending on whom you side with) are forms of AI. For now, however, we will set those technologies aside and look briefly at two other AI implementations specifically for e-discovery.
First is NexLP (www.nexlp.com/), which says it âuses artificial intelligence and machine learning to derive actionable insight from unstructured and structured data.â The companyâs Story Engine can â[s]earch, analyze, and investigate complex datasets to tell a storyâ as well as â[a]ctively monitor communications to turn disparate data into decisive decision.â NexLP integrates with kCuraâs Relativity (www.kcura.com/relativity/) for, among other things, evaluating electronically stored information.
And then in June, DISCO (www. csdisco.com) announced the general availability of DISCO AI. According to the companyâs press release, DISCO AI presents lawyers âwith predictions for suggested document classifications (or tags) relevant to particular aspects of a case, such as key issues, importance, confidential information, and overall case relevance.â There also are, of course, myriad examples of e-discovery providers who claim their systems are powered by artificial intelligence but who donât seem to publish detailed explanations of what they mean by that.
These are only the early fits and starts. In the months and years to come, we are likely to see the ever-morphing field of artificial intelligence alter how the bench and bar get their work done, not so much displacing attorneys and judges as delivering to them greater capabilities for handling ever-growing troves of data.
George Socha is the cofounder of EDRM, the e-discovery standards organization housed at Duke Law School, and director of BDO Consultingâs forensic technology services. Learn more at edrm.net.
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