Fight The Future: Encrypted Screws

Imagine a world where you cannot take apart anything, or attempting to
take apart devices, open computer cases, install 3rd party replacement
parts or modifying an existing device was completely banned by greedy
corporations through technology.  A kind of tamper-proof palladium for
all devices including cars, TV's, and any appliance that uses technology.

Imagine that TV's have technology that tracks eye movements and records
the reflection in your eyes (they already have technology that can figure
out what you are looking at solely from reflections on eyes).  Now
imagine that you cannot disable this big-brother device without disabling
the TV completely.  Now imagine that in order to get the TV to show you
the programming you want, the device must first record you watching
twenty minutes of advertising propaganda, and that the TV won't show you
the programming you want to watch unless you do watch all twenty minutes
of the propaganda first.  Now extend this to everything that the TV
shows, all programming, all games, all DVD movies, everything.  All these
things described are likely to come about over the next few years.  Most
of the technology I just described is in development.

Imagine ford makes a car, where only ford authorized technicians are
capable of servicing, fixing, diagnosing problems with, or installing new
parts.  Imagine that every part of the car was connected in such a way
that it is impossible to open without having a ford authorized technician
open it.  Imagine that when a head light breaks, you have to go to ford
to have them install a new one.  You can't remove the existing one with
out fords permission.  You can't install one made by a competitor (The
car will simply refuse to use it).  You can't even use an existing
perfectly good working head-light taken from another car, from a junk
yard or elsewhere.  Ford would have a perfect monopoly, and cars and car
parts would be very expensive.  Now image that ford makes it so that cars
will no longer work after 5 years, and have to be recycled after that
time period.  Further imagine that ford could for any reason whatsoever
deny any user of their cars the ability to fix their car, or upgrade
their car, or even run their car.  Even Further imagine that the car
always keeps track of your position, speed, and other data, and transmits
this data to ford every hour.  Ford 'owns' the car, and you use it as
long as ford (or the government) allows you to. Perhaps the next time you
stop by the Toyota Car lot Ford will decide to revoke your ability to use
your car.

Think that these scenario's can't happen?  Printers already do a lot of
the things I described in the above paragraph.

Enter The Encrypted Screws:

(My commentary will be in Parentheses.)

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<<http://smt.pennnet.com/Articles/Article_Display.cfm?Section=Articles&Sub
section=Display&ARTICLE_ID=207838>>
Intelligent Fastening for Automotive Electronics
 
Automotive OEMs and suppliers share a drive to enhance assembly
efficiency and productivity, reduce time-to-market, produce
higher-quality products at competitive prices, and meet regulatory
standards for mileage, safety and the environment. The industry also must
meet demand for increased vehicle performance, comfort, convenience,
communications and security. 
 
By Seshu Seshasai 
Content and complexity of automotive semiconductor technology for various
uses continue to grow. Allied Business Intelligence predicts that the
worldwide automotive semiconductor market will expand to more than $17
billion annually by 2007, up from $12.3 billion last year. Strategy
Analytics reports that electronic systems will grow to more than 30
percent of typical car cost, vs. today's 20 percent. 
 
Intelligent fastening removes the physical link between the tool and
fastener. Designed with actuating mechanisms, intelligent fasteners
feature embedded microchips that control the fastening process through
digital instructions from a remote tool. 

(Fool: Enabling The Manufacturer to have a complete monopoly on all
parts, all 'tools' to open, fix, modify, or release, any and all parts of
the vehicle.)
 
Fasteners typically account for only 5 percent of vehicle production
costs. Yet using fasteners in assembly systems can reach 40 percent of
production overhead. Intelligent fastening potentially can reduce these
costs through a new approach to automobile production and service. 

Design. Designers can focus on performance requirements of products,
subassemblies and component parts rather than assembly. Joints can be
shifted away from high-force transfer areas, allowing different fastening
options. This new capability could help marry form to function. 

Assembly. Subassemblies in conventionally manufactured products include
arrays of fasteners that dictate sequencing requirements of production,
maintenance and service procedures. With intelligent fasteners integrated
within components, a network of intelligent fasteners could be remotely
activated by electronic commands. 

Service. Microchips embedded in fasteners respond only to encrypted
signals, restricting access to service procedures. These procedures would
be stored in fastener control software, ensuring installation of
authorized replacement parts. A central database would retain information
on fastener status and maintenance history. All data would be accessible
instantly to document warranty claims.
Original parts with unique, electronically controlled serial numbers
could be authenticated from the central database prior to assembly.
Software also could manage inventory through a central database, as well
as provide service manuals for access by technicians. 

(Fool: This paragraph alone describes most of what I was talking about in
my Ford Scenario.)

Sensing. Integrated sensors within intelligent fasteners could be
programmed to detect, analyze and report urgent problems. As telematics
progress, fastener information could be transmitted in real time to
service centers, documenting product performance, status, wear and tear,
and maintenance procedures. Embedded sensors could signal impending
performance failure of critical parts or assemblies based on wear
parameters. 

(Fool: And when a part malfunctions?  They could also have parts that
'Expire' after a certain date, no matter whether they work properly or
not.  And the manufacturer could force you to upgrade whether you want to
or not.)

Recycling. Intelligent fastening could help simplify disassembly of
complex products using software commands to separate parts for disposal
or reuse. More efficient recycling at the end of automobile life cycles
also could reduce overall production costs. 

Customization. Intelligent fasteners could allow easy part change-out in
aftermarket customization while giving OEMs greater control of genuine
parts.

(Fool: again like the printer manufactures, this technology is designed
for the express purpose of creating a parts monopoly, where competitors
are not able to make a competing part that work with the vehicle at all.)
 
With intelligent fasteners, means of actuation is integrated into the
fastener itself. Otherwise, they can be engineered to meet the same
application requirements of load, durability and serviceability as
conventional fasteners. They can be either pins or strips that are
mono-stable (defaulting to a locked state) or bi-stable (requiring
actuation to lock or unlock). 
 
Intelligent fasteners use actuators, which typically use smart materials
to drive the fastening mechanism. Among these are shape memory alloys or
polymers that change shape to a predetermined form under the external
influence of electricity, heat and magnetic fields. Upon receiving a
command from a remote tool, the microchip electrically activates the
smart material actuator, which heats to a prescribed temperature,
changing shape and driving the fastening mechanism (Figure 1). At the end
of the control cycle, energy is removed and the fastener reverts to its
original position. 
 
Figure 1. Upon receiving a command from a remote tool, a microchip
electrically activates a smart material actuator, which heats to a
prescribed temperature, changing shape and driving the fastening
mechanism. At the end of the control cycle, energy is removed and the
fastener reverts to its original position. 

Embedded electronics include a control device, sensors and the
intelligent processor. The control device switches energy to the
actuating mechanism, and also can provide secondary switching functions
for fastened components. For example, an intelligent fastener could
secure a vehicle wing mirror and also control its adjustment. 
 
Depending on fastener design, sensors could track such parameters as
internal conditions, fastener stress levels and whether the fastener is
engaged. In assembly processors, sensors could track the relative
position between parts and other feedback on the attachment of components
and subassemblies. 

Figure 2. A remote, wireless device sends instructions to intelligent
fasteners through a software application program controlled by a human
operator. 

The intelligent processor controls all fasteners and associated activity.
These include activating energy switches, receiving information from
sensors, and communicating with the network to which it is attached. The
processor can be configured to provide multiple levels of redundancy for
product reliability. 

(Fool: What happens when some critical component of these 'intelligent'
fasteners break, like a controlling microchip?  When that happen the part
can no longer removed at all (at least not without seriously damaging the
part itself and its housing.  What happens when an EMP burst knocks out
all the microchips in all the fasteners?)
 
Fastener Operating System 
Proprietary electronics embedded in intelligent fasteners are controlled
by an operating system consisting of real-time executive input/output
(I/O) drivers. An applications programming interface provides a
connection between the intelligent fastener and application software. 

(Fool: What happens when a security vulnerability allows a virus or a
hacker to compromise components?  A virus could be set to release at an
inopportune time, killing the passengers or assassinating someone.)
 
The operating system controls fastener functions including switching
energy to the fastener actuating mechanism, linking the intelligent
fastener to surrounding data networks, and reporting fastener status.
Connection to a network allows storage and capture of information about
fastener status while maintaining a historical record. 

(Fool: What happens when the network malfunctions and starts to send
invalid commands to components?)
 
When multiple fasteners secure an assembly, typically only one fastener
would carry an embedded microchip. This "master" fastener activates or
deactivates multiple "slave" fasteners that release simultaneously to
connect or remove complex parts quickly. The operating system can support
up to 16 I/O channels for control of multiple slave fasteners, external
devices and sensors. 
 
Figure 3. Airbags are exposed at the surface of the housing, allowing
quick and easy removal. Intelligent fasteners concealed in the housing
deny access to unauthorized personnel, restricting removal to authorized
technicians using proprietary codes transmitted remotely to the
fasteners. 

(Fool: Again ensuring that expensive parts are controlled in a monopoly
and can only be replaced by the manufacturer.)

The master fastener also can run diagnostics such as checking stress
levels, load status, and ambient temperature and environmental conditions
of each fastener under its command. Information is gathered in real time
and communicated over a data bus to personnel. 
 
The operating system also can perform these functions: 

Communications and networking. These support a range of interfaces and
protocols, allowing networks of fasteners to communicate with each other
and to external services, networks and remote activation software.
 
Energy optimization. This software algorithm includes routines to
optimize activation of various fastener mechanisms, as well as reduce
power consumption and physical demands on actuators. 

Ancillary switching logic. The operating system can control ancillary
switching functions related to actual fastening applications. 

 
System Architecture 
Standard programming tools enable users to develop software applications
to program an assembly sequence and add functionality to embedded
intelligent fasteners. System architecture allows the technology to be
integrated into different types of networked environments over multiple
network protocols and hardware interfaces. The architecture consists of
four principal elements. 

(Fool: Sounds like hacker heaven.)

Master control database. This is the central data repository for unique
fastener identification information. Storage facilities include status
history and authentication and authorization of control information. 

(Fool: This Database and similar databases by other manufacturers and
governments would be a major target of hackers, terrorists, criminals,
Mafia, or other governments.  Imagine what a hacker would be able to do
if they gained access to and compromised this database.  Would you feel
secure?  The hacker could send signals to millions of vehicles to
unfasten all their fasteners, killing millions of people on the freeways
as their cars literally fell apart while they were traveling at 70 miles
per hour.)

Intelligent tool. This remote, wireless device sends instructions to
intelligent fasteners via a software application program controlled by a
human operator or automated assembly or service system (Figure 2).
Intelligent tools in the field can automatically download algorithms for
control of new fastener types. 
Communications concentrator. This device supports onboard networking and
links to the intelligent tool, providing the interface between the
control system and the intelligent fastener network. The communications
concentrator can support multiple industry standard networks, such as a
controlled area network (CAN) bus or Bluetooth.

 
Integration into Automobiles 

Wire harnesses. Harnesses are moving from traditional relay circuit
methods of vehicle component control towards a networked system of smart,
multiplexed silicon switching. For example, traditional car doors contain
about 80 wires within the door wiring harness, controlling functions such
as the rear vision mirror, door locks, window motors and in-door courtesy
lamps. By comparison, today's cars use multiplex modules within the
doors. These are connected to the vehicle computer body control module
via a CAN bus, which can reduce wire content by 50 percent.
Intelligent fasteners could attach the internal lining to the car door,
and also control the door lock and the window motor. The vehicle computer
would transmit instructions between the intelligent fastener and the
remote tool and be connected by the CAN bus network. 
The fasteners would reside directly on the CAN bus or in a sub-network,
typically a local interconnected network (LIN) that controls door
component functions. This sub-network comprises a communication gateway
attached to the CAN backbone. The multiplex module controls the network
of components beneath it, including the door lock and the window motor. 

Airbags. Today's airbags are exposed at the surface of the housing, so it
only takes a couple of minutes to remove them. More than 50,000 are
stolen every year in the U.S. alone. Airbags also are cumbersome to
install, requiring stops at assembly stations to screw them into place.
Service can be carried out by anyone with the right tools, but with no
automated log (Figure 3).
Intelligent fasteners can be concealed in the airbag housing. That means
there are only two ways to remove them: by authorized codes transmitted
remotely to the fasteners, or by destroying the housing and airbag,
rendering them useless. Only genuine replacement parts could be
installed, and each service process would be logged and stored for future
reference. 

(Fool: Again: Complete Monopoly Control.  No Competition.  Only
Manufacturers can install / remove them.  Most importantly this keeps the
prices at robber-baron high levels.)

Headlamps. Headlamps consist of a complex arrangement of snap clips and
mechanical fasteners on an adjustable sub-assembly. By using intelligent
fasteners, the lens and lamp assembly would be remotely released from the
sub-assembly, greatly reducing time and cost to install, service and
replace parts. Removing the need for rear access screws also would allow
space savings. 

(Fool: Recent head-light parts are extremely expensive, and this would
just further consolidate the manufacturers monopoly.)

Roof racks. With the press of a button car owners could remove roof racks
and other accessories to reduce wind noise, drag and vehicle weight. 

Spare tires. Intelligent fasteners would release the spare tire with a
point-and-click button affixed to a key chain or from the instrument
panel.

Radios and stereos. By replacing clips and concealed screws with
intelligent fasteners, installing and replacing entertainment systems
becomes as simple as pressing a remote control button. 

(Fool: And only companies that have a good relationship with the
manufacturer will be allowed to install their devices.  If Sony doesn't
pay up, then the manufacturer can prevent a Sony stereo from being
installed or even working with the other stereo parts.)

Interior trim. Intelligent fasteners expedite assembly through
simultaneous or sequenced release of a networked fastening system. 

Seatbelts. Wireless or satellite signals from emergency control centers
could release seatbelts, infant restraints and seating systems, enabling
instant release of trapped or injured passengers from their cars in
emergency situations. 

(Fool: Great.  Wonderful.  The manufacturer or the government will be
able to release your seatbelts at any time from any distance.  Imagine
someone being able to release your seatbelts at anytime.  Now imagine
them running you off the road after they just released your seatbelt. 
Better not have any enemies or political opponents at one of these
'emergency control centers'.  Imagine these places being infiltrated by
the Mafia, or by terrorists, or by a government.  Feel safe driving?)

Black boxes. Intelligent fastening would provide authorized access to
black boxes, preventing tampering or removal of the circuit board or
connector during servicing.

(Fool: Again you as a 'consumer' are unable to make any changes to the
vehicle or other products that the manufacturers disallow.  You no longer
'own' the things you buy.)
 
Conclusion 
Intelligent fastening has the potential to advance the speed,
flexibility, flow and cost savings automotive OEMs and suppliers seek.
The global automotive community now has a new capability to design for
assembly and disassembly, as well as security and safety, by integrating
the mechanics of fastening processes into components. 
 
(Fool: In conclusion, this technology--Like Palladium and 'Secure
Computing'--is a danger to freedom, civil liberties and civil rights, to
property rights, to safety and security.  This is the perfect big-brother
technology, that allows corporations to treat you like a hostile
criminal--without you having ever done anything actually criminal, just
because you have the _potential_ to do something the corporation doesn't
like (and thus turning innocent until proven guilty on it's head).
Dystopia's like 1984 can happen, and greedy corporations like these,
combined with these kinds of big-brother technologies can make the future
a bleak one indeed.)

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"As nightfall does not come at once, neither does oppression. In both
instances, there is a twilight when everything remains seemingly
unchanged. And it is in such twilight that we all must be most aware of
change in the air - however slight - lest we become unwitting victims of
the darkness."
--Justice William O. Douglas

Politicians use the term "creeping normalcy" to refer to such slow trends
concealed within noisy fluctuations. If a situation is getting worse only
slowly, it is difficult to recognize that this year is worse than last
year, and each successive year is only slightly worse than the year
before, so that one's baseline standard for what constitutes "normalcy"
shifts only gradually and almost imperceptibly. It may take a few decades
of a long sequence of such slight year-to-year changes before someone
suddenly realizes that conditions were much better several decades ago,
and that what is accepted as normalcy has crept downwards.
<<http://www.edge.org/documents/archive/edge114.html>>
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