All The Claims

1. A method for configuring a user-programmable control device for integration of an intelligent electrical field device into a control or automation system having a flexibly expandable hardware structure, comprising:
storing a system specification description on a system configuration tool, wherein the system specification description defines a data interchange from the system configuration tool to a device configuration tool in accordance with a defined communications protocol;
providing a configuration device description, which defines the data interchange from the device configuration tool to an intelligent electrical field device in accordance with a defined communications protocol for the device configuration tool;
producing device configuration data in the device configuration tool from the configuration device description and a system configuration description provided by the system configuration tool;
creating project-specific libraries of logical node types for the user-programmable control device using an editing program which is implemented as a logical node type editor;
selecting a previously created library using a controller configuration tool; and
producing a device-specific configuration descriptions for the control or automation system, which form a prescribed set of logical node types for the control or automation system and which are provided for further processing.
2. The method according to claim 1, wherein the data interchange from the device configuration tool to the electrical field device and from the system configuration tool to the device configuration tool is performed in accordance with an IEC 61850 standard.
3. A method for configuring a user-programmable control device for integration of an intelligent electrical field device (IED) into a control or automation system having a flexibly expandable hardware structure, comprising:
creating a configuration of the control or automation system using a device configuration tool and a system configuration tool;
storing a system specification description (SSD) on the system configuration tool, which defines the data interchange from the system configuration tool to the device configuration tool in accordance with a defined communications protocol;
providing a configuration device description (CID) for the device configuration tool, which defines data interchange from the device configuration tool to an electrical field device (IED) in accordance with a defined communications protocol;
producing device configuration data in the device configuration tool from the configuration device description (CID) and a system configuration description (SCD) provided by the system configuration tool;
creating project-specific libraries of logical node types for the user-programmable control device using an editing program which is implemented as a logical node type editor;
selecting previously created project-specific libraries using a controller configuration tool; and
producing device-specific configuration descriptions (ICD) for the control or automation system, which form a firmly prescribed set of logical node types for the control or automation system and which are provided for further processing.
4. The method according to claim 1, wherein the data interchange from the device configuration tool to the electrical field device and from the system configuration tool to the device configuration tool is performed in accordance with an IEC 61850 standard.
5. An arrangement for configuring a user-programmable control device for integration of an intelligent field device into a control or automation system having a flexibly expandable hardware structure comprising:
a device configuration tool for providing a configuration description file which defines data interchange from the device configuration tool to an electrical field device in accordance with a defined communications protocol;
a system configuration tool for storing a system specification description, which defines data interchange from the system configuration tool to the device configuration tool in accordance with a defined communications protocol, wherein the device configuration tool is configured for producing device configuration data from a configuration device description and a system configuration description provided by the system configuration tool;
an editing program, which is implemented as a logical node type editor, for creating project-specific libraries of logical node types for the user-programmable control device; and
a controller configuration tool for selecting previously created project-specific libraries, and for producing device-specific configuration descriptions for the control or automation system, which correspond to a firmly prescribed set of logical node types for the control or automation system and which are available for further processing.
6. The arrangement according to claim 3, wherein the data interchange from the device configuration tool to the electrical field device and from the system configuration tool to the device configuration tool is performed in accordance with an IEC 61850 standard.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. An ion implanter for implanting ions into a target substrate, comprising:
an ion source;
an ion beam extraction assembly for extracting ions from the ion source and forming a beam of extracted ions, the ion beam extraction assembly including therein a steering electrode having first and second electrically isolated electrode members defining therebetween a steering electrode aperture through which said ion beam may pass, and a voltage generator for applying a first voltage to said first electrode member and a second voltage to said second electrode member, the ion beam being controllably deflected in dependence upon the difference between said first and second voltages;
said ion source comprising an arc chamber in which ions are formed, said arc chamber having a front face including an exit aperture through which ions can be extracted from the said arc chamber, said front face defining a first electrode, said steering electrode being adjacent the first electrode;
a substrate holder downstream of the ion beam extraction assembly, for holding the target substrate; and
a deflection monitor, arranged between the extraction assembly and the substrate holder, for monitoring the deflection of said ion beam, said monitor comprising:
first and second electrically conductive surfaces, said first and second surface being adjacent and electrically isolated from one another, and defining an aperture therebetween to permit passage of at least a part of said ion beam in use; and
a current monitor for measuring the difference between a current generated upon said first surface by a part of said ion beam and the current generated upon said second surface by another part of said ion beam, said current difference being indicative of the degree of deflection of said ion beam.
2. An implanter as claimed in claim 1, further comprising a controller arranged to receive a signal representative of the current difference measured by said current measurement means, the controller controlling the difference between said first and second voltages to adjust the deflection of said ion beam in dependence upon said received signal.
3. An implanter as claimed in claim 1, further comprising a third apertured electrode adjacent said steering electrode and a fourth apertured electrode adjacent said third electrode, said first, steering, third and fourth electrodes being electrically insulated from one another.
4. An ion implanter as claimed in any of claim 1, in which the voltage generator is arranged to generate first and second voltages each of which includes a DC component to produce a static electric field between the said first and second electrode members, wherein the ion beam is deflected by a fixed angle.
5. An implanter as claimed in claim 4, in which the voltage generator is further arranged to generate first and second voltages each of which also include an AC component, to produce an oscillating transverse electric field as well as the said static electric field between the said first and second electrode members, wherein the ions within said ion beam are caused to oscillate substantially transversely to a longitudinal axis of the said ion beam to increase the current generated upon at least one of said first and second electrically conductive surfaces of said deflecting monitor.
6. An ion implanter as claimed in claim 1, further comprising an ion mass selector between said ion beam extraction assembly and said substrate holder, for selecting ions of a desired mass in said ion beam to be implanted into said target substrate.
7. An ion implanter as claimed in claim 1, in which the first and second electrically conductive surfaces constitute respective halves of a baffle downstream of the ion beam extraction assembly.
8. An ion implanter as claimed in claim 7, further comprising an ion mass selector between said ion beam extraction assembly and said substrate holder, for selecting ions of a desired mass in said ion beam to be implanted into said target substrate, wherein the ion mass selector defines an entrance and wherein the baffle is mounted adjacent said entrance.
9. An ion implanter comprising:
an ion source having an arc chamber; an electrode assembly for extracting ions from the arc chamber and forming a steerable beam of the extracted ions, the electrode assembly including therein a steering electrode having first and second electrically separate electrode members defining therebetween an aperture through which the ions may pass;
and a voltage generator providing a first DC voltage to the first electrode member and providing a second DC voltage to the second electrode member, a difference between the first and second DC voltages generating a static electric field across the aperture,
whereby the ion beam may be steered by an amount related to the said voltage difference.
10. A method of steering a beam of ions extracted by an extraction assembly from the arc chamber of an ion source in an ion implanter, the method comprising the steps of:
electrostatically deflecting the ions in the extraction assembly transversely of the beam direction at a deflection position where the ions experience an accelerating or decelerating field in the beam direction, thereby angularly steering the direction of said beam;
directing said ion beam through an aperture between first and second electrically conductive surfaces each arranged downstream of said deflection position, said first and second surfaces being electrically isolated from one another;
measuring the difference between a current generated upon said first surface as it is struck by a part of said ion beam, and the current generated upon said second surface as it is struck by another part of said ion beam, whereby said current difference is indicative of the degree of deflection of said ion beam; and
selectively adjusting the amount of electrostatic deflection of the ions until the difference between the current generated upon said first surface and the current generated upon said second surface, becomes substantially zero.
11. A method of steering an ion beam in an ion beam extraction assembly for the ion source arc chamber of an ion implanter, the ion beam extraction assembly including therein a steering electrode comprising first and second electrically isolated electrode members defining therebetween an aperture through which ions in the said ion beam may pass, the method comprising the steps of:
applying a first DC voltage to the first electrode member; and
applying a second DC voltage to the second electrode member;
whereby a difference between said first and second DC voltages causes a static electric field to be generated transversely of said aperture between said first and second electrode members, such that the ions are electrostatically deflected through an angle related to the said DC voltage difference.
12. An ion implanter for implanting ions into a target substrate, comprising:
an ion source;
an ion beam extraction assembly for extracting ions from the ion source and forming a beam of extracted ions, the extraction assembly including a steering electrode having first and second electrically isolated electrode members defining therebetween a steering electrode aperture through which said ion beam may pass, and a voltage generator for applying a first voltage to said first electrode member and a second voltage to said second electrode member, the ion beam being controllably deflected in dependence upon the difference between said first and second voltages;
a substrate holder downstream of the ion beam extraction assembly, for holding the said target substrate; and
a deflection monitor, arranged between the extraction assembly and the substrate holder, for monitoring the deflection of said ion beam, said monitor comprising:
first and second electrically conductive surfaces, said first and second surface being adjacent and electrically isolated from one another, and defining an aperture therebetween to permit passage of at least a part of said ion beam in use; and
current measurement means, for measuring the difference between a current generated upon said first surface by a part of said ion beam and the current generated upon said second surface by another part of said ion beam, said current difference being indicative of the degree of deflection of said ion beam;
wherein the voltage generator is arranged to generate first and second voltages, each of which includes a DC component to produce a static electrode field between the said first and second electrode members to deflect the ion beam by a fixed angle, and an AC component, to produce an oscillating transverse electric field as well as said static electric field to cause the ions within said ion beam to oscillate substantially transversely to a longitudinal axis of the said ion beam to increase the current generated upon at least one of said first and second electrically conductive surfaces of said deflecting monitor.
13. An ion implanter for implanting ions into a target substrate, comprising:
an ion source;
an ion beam extraction assembly for extracting ions from the ion source and forming a beam of extracted ions, the ion beam extraction assembly including therein a steering electrode having first and second electrically isolated electrode members defining therebetween a steering electrode aperture through which said ion beam may pass, and a voltage generator for applying a first voltage to said first electrode member and a second voltage to said second electrode member, the ion beam being controllably deflected in dependence upon the difference between said first and second voltages; a substrate holder downstream of the ion beam extraction assembly, for holding the target substrate;
an ion beam mass selector between said ion beam extraction assembly and said substrate holder, for selecting ions of a desired mass in said ion beam to be implanted into said target substrate; and a deflection monitor, arranged between the extraction assembly and the substrate holder, for monitoring the deflection of said ion beam, said monitor comprising:
first and second electrically conductive surfaces, said first and second surfaces being adjacent and electrically isolated from one another, and defining an aperture therebetween to permit passage of at least a part of said ion beam in use; and
a current monitor for measuring the difference between a current generated upon said first surface by a part of said ion beam and a current generated upon said second surface by another part of said ion beam, said current difference being indicative of the degree of deflection of said ion beam.

1. A method comprising:
storing a static key portion at a server for creating combined encryption keys for multiple clients;
generating a first session key portion for a first session with a first remote client and a first client key portion for the first remote client;
encrypting first client data received from the first remote client during the first session using a first combined encryption key generated from the static key portion, the first session key portion, and the first client key portion;
generating a second session key portion for a second session with a second remote client and a second client key portion for the second remote client;
encrypting second client data received from the second remote client during the second session using a second combined encryption key generated from the static key portion, the second session key portion, and the second client key portion;
providing the first client key portion to the first remote client and the second client key portion to the second remote client and deleting the first and second client key portions from the server; and
subsequent to deleting the first and second client key portions, invalidating the static key portion responsive to determining that a security breach has occurred with respect to the server during the first and second sessions, wherein invalidating the static key portion invalidates the first and second combined encryption keys.
2. The method of claim 1, wherein invalidating the static key portion renders the static key portion unusable for generation of combined encryption keys and combined decryption keys.
3. The method of claim 2, wherein rendering the static key portion unusable comprises at least one of deleting the static key portion or changing the static key portion.
4. The method of claim 1, further comprising:
for the first session with the first remote client session of the group of sessions, subsequent to deleting the first client key portion from the server:
determining that a subsequent transaction involves providing decrypted first client data,
obtaining the first client key portion from the first remote client, and
decrypting the first client data with a combined decryption key that is generated from the static key portion, the first session key portion, and the obtained first client key portion;
5. The method of claim 4, further comprising providing the decrypted first client data from the server to an additional server.
6. The method of claim 5, wherein the subsequent transaction comprises executing a function provided by the additional server, wherein the first client data comprises authentication information for the additional server that is different from authentication information used to establish the first session between the server and the first remote client.
7. The method of claim 1, further comprising:
determining that the first session with the first remote client is expired; and
invalidating the first session key portion.
8. The method of claim 7, wherein invalidating the first session key portion renders the first session key portion unusable for generation of combined encryption keys and combined decryption keys.
9. The method of claim 1, further comprising:
determining that an additional transaction involves the first client data encrypted with the first combined encryption key;
determining that the first session key portion is expired; and
requesting the first client data from the first remote client responsive to determining that the first session key portion is expired.
10. A system comprising:
a processor; and
a non-transitory computer-readable medium communicatively coupled to the processor,
wherein the processor is configured to execute program code stored to the non-transitory computer-readable medium for performing operations comprising:
storing a static key portion at a server for creating combined encryption keys for multiple clients,
generating a first session key portion for a first session with a first remote client and a first client key portion for the first remote client,
encrypting first client data received from the first remote client during the first session using a first combined encryption key generated from the static key portion, the first session key portion, and the first client key portion,
generating a second session key portion for a second session with a second remote client and a second client key portion for the second remote client,
encrypting second client data received from the second remote client during the second session using a second combined encryption key generated from the static key portion, the second session key portion, and the second client key portion,
providing the first client key portion to the first remote client and the second client key portion to the second remote client and deleting the first and second client key portions from the server, and
subsequent to deleting the first and second client key portions, invalidating the static key portion responsive to determining that a security breach has occurred with respect to the server during the first and second sessions, wherein invalidating the static key portion invalidates the first and second combined encryption keys.
11. The system of claim 10, wherein invalidating the static key portion renders the static key portion unusable for generation of combined encryption keys and combined decryption keys.
12. The system of claim 10, wherein the processor is further configured to execute program code for performing additional operations comprising:
for the first session with the first remote client session of the group of sessions, subsequent to deleting the first client key portion from the server:
determining that a subsequent transaction involves providing decrypted first client data,
obtaining the first client key portion from the first remote client, and
decrypting the first client data with a combined decryption key that is generated from the static key portion, the first session key portion, and the obtained first client key portion;
13. The system of claim 12, wherein the processor is further configured to execute program code for performing additional operations comprising providing the decrypted first client data from the server to an additional server.
14. The system of claim 13, wherein the subsequent transaction comprises executing a function provided by the additional server, and wherein the first client data comprises authentication information for the additional server that is different from authentication information used to establish the first session between the server and the first remote client.
16. A non-transitory computer-readable medium embodying program code executable by a processing device, the program code comprising:
program code for storing a static key portion at a server for creating combined encryption keys for multiple clients;
program code for generating a first session key portion for a first session with a first remote client and a first client key portion for the first remote client;
program code for encrypting first client data received from the first remote client during the first session using a first combined encryption key generated from the static key portion, the first session key portion, and the first client key portion;
program code for generating a second session key portion for a second session with a second remote client and a second client key portion for the second remote client;
program code for encrypting second client data received from the second remote client during the second session using a second combined encryption key generated from the static key portion, the second session key portion, and the second client key portion;
program code for providing the first client key portion to the first remote client and the second client key portion to the second remote client and deleting the first and second client key portions from the server; and
program code for invalidating, subsequent to deleting the first and second client key portions, the static key portion responsive to determining that a security breach has occurred with respect to the server during the first and second sessions, wherein invalidating the static key portion invalidates the first and second combined encryption keys.
17. The non-transitory computer-readable medium of claim 16, wherein invalidating the static key portion renders the static key portion unusable for generation of combined encryption keys and combined decryption keys.
18. The non-transitory computer-readable medium of claim 16, wherein the program code further comprises:
program code for performing, for the first session with the first remote client session of the group of sessions, operations comprising:
determining that a subsequent transaction involves providing decrypted first client data,
obtaining the first client key portion from the first remote client, and
decrypting the first client data with a combined decryption key that is generated from the static key portion, the first session key portion, and the obtained first client key portion;
19. The non-transitory computer-readable medium of claim 16, wherein the program code further comprises:
program code for determining that the first session with the first remote client is expired; and
program code for invalidating the first session key portion.
20. The non-transitory computer-readable medium of claim 16, wherein the program code further comprises:
program code for determining that an additional transaction involves the first client data encrypted with the first combined encryption key;
program code for determining that the first session key portion is expired; and
program code for requesting the first client data from the first remote client responsive to determining that the first session key portion is expired.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. The Object Approaching Safety View Anti-Blind e-Mirrors System promotes a new method of driving safety view for motor vehicles from optical type to optoelectronic type. This new method meet the need of higher safety view standard for more & more crowded traffic system in the future due to the rapid growth of population. (Please go through all 12 pages of figures first). It fills out also the blank of all large trucks and buses missing the center rear mirror.
2. The integration of The e-Mirrors system. It’s integrated with night vision capable multi micro CCD cameras+high definition low distortion board Lens+high resolution multi-small LCD panels+angle title-able special design camera mounts. (skim all P12 figures) The cameras are mounted on specific corner points, so to get perfect views to detect any object or vehicles around approaching to your vehicle. (see P8, P7 figures)
3. Overcome all blind spots any other problems found in regular optical mirrors (see section Detailed Description) and a lot more. The e-mirrors system not only overcome all blind spots of 40 years old conventional optical mirrors, but also extend driver’s eyes to view the rear surround the vehicle, get the proximity view of any vehicle or object approaching to your vehicle, more over regular optical mirrors that reflects only deepness and size.
4. Avoid, and react earlier concept. With this object approaching proximity view-able e-Mirrors system, any approaching object around your vehicle can be found, and driver can have enough second to react earlier to avoid collision. The e-Mirrors system will significantly reduce traffic accidents each year if to apply earlier.
5. e-Mirrors side by side dual screen for small vehicles. A pair of flat panel high resolution 5\u2033 to 5.6\u2033 LCD screens (around similar size of optical side mirrors), with synchronized brightness and contrast control, is mounted on dashboard near to center. The e-Mirrors will be set in same view direction with passenger side mirror. (see P4 figures).
6. e-Mirrors for large vehicles using quad display. For large vehicles, like container tow trucks, gas tank tow trucks, school buses, public buses etc, A large e-mirror is made with 8.4\u2033 to 15\u2033 inch size single video LCD panel (similar size of their side mirrors), is mounted on front dash near to passenger tool box for drivers rapid view. The e-Mirror is connected with 4 channel quad split video processor to present all blind spots around the large vehicle. The e-mirror can also be made with 2\xd72 array of small LCD screens. (see P10, P11 figures)
7. Dual micro CCD cameras apply for rear views setting to cover 180 degree full rear vision. (see FIG. 6A) This setting get 4 benefits:
1) Dual setting eliminates the blind spots at both side found in some single camera rear view system. (see FIG. 2C)
2) Dual cameras setting is also minimize the super wide angle distortion found in single camera setting, which shrinks the rear object to tiny image and difficult to estimate the proximity of a back vehicle or object.
3) Dual cameras setting enhance video definition since using reduce wide angle of lens. In optical theory, wide angle is conflict to definition.
4) Dual Camera will cover the whole 180 degree of view (90\xb0\xd72), single camera will never reach that angle.
8. Object approaching detection anti side blind spot technique. To make it possible, a camera must be mounted out of front corner of vehicle a few inches using a short bar like bracket at passenger side. It’s mounted like side mirrors. (see P8, P9, FIG. 9A)
9. Rear cameras license plate on frame L-R stereo mounts with wide angle tilt-able mechanism. (see FIG. 5C, P6 figures). The angle tilt-able mechanism will be critical to large truck drivers. Since large trucks do not have center mirror. They need narrow angle 60 degree dual rear cameras and need to tilt the cameras screen viewing the rear corners when backing out.
10. Rear cameras license plate stereo mounts can apply to any automobiles without drilling screw holes nor modification to the shiny finish coating of vehicle. This feature will receive great welcome to owners driving luxury cars like Mercedes Benz, Porsche, Lexus, BMW etc.
11. Rear object proximity detection anti rear blind spot corner mount technique. When pulling a vehicle out of a parking spot. The turn corner of your vehicle will be heading out first. (figures P6). The best setting to view proximity is as figures P7. Left camera views right, right camera views left. However, that setting will be high cost to mount CCD cameras on rear corners of a new vehicle. This technique is good for new design vehicle, factories can pre-mount camera inside the tail lights, or brake lights
12. Rear object proximity detection license plate mount technique. License plate on frame dual cameras stereo mount is the most easy and uniform mount to all vehicles. (see P6 figures). This method is perfect good for luxury vehicle. since the installation does not need to drill holes nor to modify the car shiny finish coating. (see FIG. 5C) Another goodness to this mount is the easy power supply from license plate light to cameras.
13. License plate dual rear cameras mount angle view adjustable to large vehicles without central rear mirror, like truck, tow truck, bus etc. Camera Lens 65 to 90 degree options. So to match with image size of optical side mirrors. If 65 narrow angle lens are applied, when backing out a truck, driver can adjust the dual rear cameras viewing on rear corners to get proximity view. Single driver can back out a large tow truck safely. After the back out operation, cameras angle can be adjusted to straight back. (see FIG. 10C)
14. Super night vision, high SignalNoise ratio, Day & night ultra dynamic auto compensation outdoor CCD custom design camera. (see P3 figures)
1) Super night vision for countryside driving. The cameras can view objects surround the vehicle at suburban dark night without road lights, nor city light, near human eyes invisible threshold. The super sensitive CCD chip and special design large iris lens make it possible.
2) High SignalNoise ratio (52-to-60 db). It’s the highest ratio in the market comparing to regular 40- to 48 db) The latest 6th generation DSP (Digital Super Processor) chip make it possible.
3) Day & night ultra dynamic auto compensation outdoor usage without blur video effect. The cameras can \u201csee\u201d under high beat head light or under sunlight without showing burning video effect. Under dark environment, you don’t see heavy snow noise on the e-Mirrors. The latest generation DSP (Digital Super Processor) chip and highest tolerant special circuit design make it possible. (P3 figures)
4) Using micro water proof enclosure for vehicle external use. (FIG. 3B)
15. Special design of micro board lens: super large iris and, 90 degree right angle, ultra low distortion, high resolution. so to eliminate typical focal Len serious convex distortion, best meet to the requirement of rear view cameras. (FIG. 3C) Thanks to the support of a China optical component factory. They gave us a great insight when we design the new curve optical lens with more glass layers combination.
1) Using finger nail size micro board lens, instead of large diameter regular indoor CS mount lens for vehicle use cameras. Nevertheless, all optical performances in our new design board lens are even better than large size CS mount lens, when the total size is only \u2159 of CS lens
2) Super large optical iris. 8.5 mm-to-9 mm diameter compare to regular 4 or 4.5 mm board lens iris. That ultra iris make it possible for maximum light throughput and high optical power, so to produce the super sharp video image and highest definition. This advantage makes the video image 4-5 times brighter than regular board lens l the market.
3) Large object Lens to minimize convex distortion image while keeping 90 degree wide angle view lens. (figure 3C-2, 3D). Drivers often criticize problems found in some single rear view camera: shrinking image, heavy convex distortion image. blur image, fuzzy video etc. You don’t see those problem again in our unique design Lens.
4) Dual 90 degree horizontal right angle Lens, (not wider than 95 degree each) best cover 180 degree rear view, and show rear objects size to match with image size in regular reflective rear mirror. Control the convex distortion under 9% (regular lens are 25%-30% distortion)
Never think an indoor camera can work for a car in outdoor day & night full weather requirement.
16. Camera mounts for large motor vehicles, like container truck, trailer tow truck, gas tank tow truck, school bus, and public bus etc. The configuration will use 4 cameras, 2 on middle of the body, other 2 on the rear corners or on the license plate L-R. see P10 figures.
17. Panoramic Safety View Anti-Blind e-Mirrors System for Mission Vehicles. This system apply 5 cameras to create panoramic view for mission vehicles. A blind spot view camera in driver side is applied (see FIGS. 11B, 12B). Its LCD e-Mirror setting is a bit challenge. It can not set at central with the right e-Mirror. The best setting point is on dashboard left corner, so to get the same view direction of outdoor left mirror.
18. Center rear view auto zoom camera for mission vehicles. This is the 5th camera. (see FIG. 11A) It use auto-focus lens adjustable from 60-to-15 degree. (see FIG. 11D) It can view any following vehicles behind you and can zoom in like telescope. The center rear auto zoom camera is mounted inside the rear wind shield or is hided inside of the vehicle. Meanwhile, a switch control will let driver switch (views when display 4 cameras view on dual screen e-mirror. (See FIG. 12C) Panoramic View Anti-Blind e-Mirrors System for Mission Vehicles is best for military vehicles, highway patrol, border patrols, police vehicles, secret service vehicles, fire truck, armored truck, government vehicles, sport & racing vehicles etc.
19. e-Mirrors as part of rapid view instruments for spot racing vehicles. (see FIGS. 11B, 12B, 12C) The driver side blind spot e-Mirror is best for sport racing vehicles. Since racing cars usually pass from left side. Rapid viewing (glancing) left side blind spot without turning driver’s head away from forward view is critical to racing drivers. Racing drivers always be caution when any racing car attempt to pass him. Driver is in high tension at super racing speed. He dose not even have chance to turn his head left when racing in 120 mph such super speed. Racing vehicle will run over 171 feet in just 1 second. That distance is enough to hit other vehicles at front or to hit road side and flip over (then crash). In such \u201cno head turn allow\u201d critical situation, glancing on the left e-Mirror checking the blind spot will be super advantage to those racing drivers. For future spot vehicles design, the left e-Mirror can integrate with dash board design and near to the engine speed meter. That combination can call rapid view instruments for racing driver.
20. e-Mirrors multiple configurations for variety vehicles at different safety view level.
1) For small vehicles, connection is as FIG. 12C
2) For mission vehicles, will add on configuration FIGS. 12B, 12C.
3) For large vehicles, connection will combine digital quad video processor. See FIG. 12E.
4) For tow trucks, beside the 3), rear cameras might apply video boosters since they are 50 feet away from the e-mirror on dashboard. It depend on the coaxial video cables grade, and the trailer length.
21. Vehicle hood front corner side edge mount technique. No visible drilling holes on shiny coating of vehicle. (see FIGS. 9A, 9B) This technique is very good for existing luxury cars and SUV. For new design car, factory can pre-make a mount space and bracket at the front corner for anti blind camera.
22. Aerodynamic design and 3 dimensional title-able bracket for front camera, avoids unnecessary airflow turbulence at high speed. Flexible angle mount will fit cars and vans different sloping angle hood. (see FIG. 9B)