TM » Topics » 5.C RESEARCH AND DEVELOPMENT, PATENTS AND LICENSES

This excerpt taken from the TM 20-F filed Jun 24, 2009.

5.C RESEARCH AND DEVELOPMENT, PATENTS AND LICENSES

Toyota’s research and development activities focus on the environment, vehicle safety, information technology and product development.

Toyota’s environmental research and development activities focus on:

 

   

Developing light weight and more fuel-efficient engines and transmissions. These technologies include the direct injection four-stroke gasoline engine, the nitrous oxide storage reduction catalytic system, the common rail direct injection diesel engine and the diesel particulate and nitrous oxide reduction system.

 

   

Developing alternative fuel powering systems for commercial sale. This includes developing hybrid vehicles and fuel cell hybrid vehicles. The second-generation Prius that Toyota introduced in September 2003 features a new hybrid system which decreases negative environmental impact while increasing power and performance. In July 2007, Toyota developed the Plug-in Hybrid Vehicle (PHV) and received certification from Japan’s Ministry of Land, Infrastructure, Transport and Tourism (MLIT). PHV runs as an Electric Vehicle (EV) in short distances and runs as a regular hybrid vehicle in long distances. Tests are conducted in Japan, North America and Europe and in late 2009, Toyota plans to sell PHVs with lithium ion batteries to fleet vehicle users in Japan, North America and Europe. In June 2005, Toyota’s new fuel cell hybrid passenger vehicle became the first vehicle in Japan to acquire vehicle type certification under the Road Vehicles Act, as amended on March 31, 2005, by MLIT. Toyota is also working on the development of alternative fuels for vehicles fueled by compressed natural gas and liquid petroleum gas, as well as for flexible fuel vehicles that run on bioethanol and gasoline which are recently drawing a lot of attention. Toyota has also been conducting a wide range of research and study on alternative fuel such as biofuel, including cellulose ethanol and hydrogenized bio-diesel, and utilizing it in developing alternative-fuel vehicles.

 

   

Recycling of vehicle parts through the development of recycling technologies. Work in this area includes developing uses for shredder residue, the recycling of nickel-metal hydride batteries and the development of vehicles constructed with a high proportion of recyclable parts.

Toyota’s work in the area of vehicle safety is focused on the development of technologies designed to prevent accidents in the first instance, as well as the development of technologies that protect passengers and reduce the damage on impact in the event of an accident. Safety technologies in development include:

 

   

research on protecting diverse passengers, including senior citizens,

 

   

autonomous driving support systems, including frontal crash-prevention support systems, and

 

   

data exchange driving-support systems using advanced communication technologies.

To expand the frontiers of safety technology in automobiles, Toyota completed in 1995 its first prototype Advanced Safety Vehicle, the ASV-1. The ASV-2, which was introduced in 2000, incorporates emerging technologies, such as an autonomous safety support system that uses CCD stereo cameras to recognize obstacles in traffic lanes and an infrastructure-harmonized safety support system to warn the driver of pedestrian crossings. In 2002, Toyota conducted road testing of the ASV-3, a prototype based on further improved

 

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infrastructure-harmonized system. With the February 2003 introduction of the Harrier models in Japan, Toyota became the first car manufacturer to implement a pre-crash safety system in its automobiles. This advanced system consists of pre-crash sensors that use millimeter wave radar to detect a possible collision, seat belts that tighten their hold on passengers when a collision is determined to be inevitable and a brake assist system that utilizes power-assisted braking to minimize the speed on impact. In February 2004, Toyota introduced the pre-collision safety system for the first time in the United States by equipping the LS430 with the above features and suspension control features that control nose dives when applying the brakes.

In September 2006, at the time of introduction of LS460 in Japan, Toyota established the world’s first enhanced pre-crash safety system, which added functions to detect pedestrians in front, to support driver steering, and to react to vehicle collision.

In February 2008, Toyota developed the world’s first driver monitoring pre-crash safety system for the Crown sold in Japan, that monitors whether the driver’s eyes are open, in addition to the face monitor which monitors the direction in which the driver is facing.

Furthermore, in March 2009, Toyota developed and introduced the world’s first “front-side pre-crash safety system”, which detects possible head-on and front-side collisions such as at intersections, for the Crown Majesta.

Toyota’s product development program uses a series of methods which are generally intended to promote timely and appropriate responses to changing market demand. These methods include:

 

   

optimizing and eliminating vehicle platforms,

 

   

sharing parts and components among multiple vehicles,

 

   

shortening the time for development and production preparation by the simultaneous study of design and production engineering processes, and

 

   

using computers for production design and evaluation.

In September 2002, Toyota and Nissan Motor Co., Ltd. (“Nissan”) entered into an agreement setting forth the basic terms of technical cooperation and other long-term projects involving hybrid systems. Pursuant to this agreement, Toyota has provided parts and components of the Camry Hybrid’s hybrid system to Nissan’s Altima Hybrid since 2006. In March 2004, Toyota and Ford Motor Company announced that they have entered into licensing agreements for patents related to hybrid systems and emissions purification. Pursuant to the agreements, Toyota will license, to Ford Motor Company, patents related to hybrid system control technology. Further, both companies agreed to a cross-licensing arrangement of emission purification technology patents for lean-burn engines.

Toyota’s research and development expenditures were approximately ¥904 billion in fiscal 2009, ¥959 billion in fiscal 2008 and ¥891 billion in fiscal 2007. Worldwide, approximately 36,000 employees are involved in Toyota’s research and development activities.

Toyota does not consider any one group of patents or licenses to be so important that their expiration or termination would materially affect Toyota’s business. For a further discussion of Toyota’s intellectual property, see “Information on the Company — Business Overview — Intellectual Property”.

This excerpt taken from the TM 20-F filed Jun 25, 2008.

5.C RESEARCH AND DEVELOPMENT, PATENTS AND LICENSES

Toyota’s research and development activities focus on the environment, vehicle safety, information technology and product development.

Toyota’s environmental research and development activities focus on:

 

   

Developing light weight and more fuel-efficient engines and transmissions. These technologies include the direct injection four-stroke gasoline engine, the nitrous oxide storage reduction catalytic system, the common rail direct injection diesel engine and the diesel particulate and nitrous oxide reduction system.

 

   

Developing alternative fuel powering systems for commercial sale. This includes developing hybrid vehicles and fuel cell hybrid vehicles. The second-generation Prius that Toyota introduced in September 2003 features a new hybrid system which decreases negative environmental impact while increasing power and performance. In July 2007, Toyota developed the Plug-in Hybrid Vehicle (PHV) and received certification from Japan’s Ministry of Land, Infrastructure, Transport and Tourism (MLIT). PHV runs as an Electric Vehicle (EV) in short distances and runs as a regular hybrid vehicle in long distances. Tests are conducted in Japan, North America and Europe and by 2010, Toyota plans to sell PHVs with lithium ion batteries to fleet vehicle users in Japan, North America and Europe. In June 2005, Toyota’s new fuel cell hybrid passenger vehicle became the first vehicle in Japan to acquire vehicle type certification under the Road Vehicles Act, as amended on March 31, 2005, by MLIT. Toyota is also working on the development of alternative fuels for vehicles fueled by compressed natural gas and liquid petroleum gas, as well as for flexible fuel vehicles which are recently drawing a lot of attention. Other Toyota efforts in this area include the development of vehicles fueled by compressed natural gas and other alternative fuel vehicles. Toyota has also been conducting a wide range of research and study on alternative fuel such as biofuel, including cellulose ethanol and hydrogenized bio-diesel, and utilizing it in developing alternative-fuel vehicles.

 

   

Recycling of vehicle parts through the development of recycling technologies. Work in this area includes developing uses for shredder residue, the recycling of nickel-metal hydride batteries and the development of vehicles constructed with a high proportion of recyclable parts.

Toyota’s work in the area of vehicle safety is focused on the development of technologies designed to prevent accidents in the first instance, as well as the development of technologies that protect passengers and reduce the damage on impact in the event of an accident. Safety technologies in development include:

 

   

research on protecting diverse passengers, including senior citizens,

 

   

autonomous driving support systems, including frontal crash-prevention support systems, and

 

   

data exchange driving-support systems using advanced communication technologies.

 

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To expand the frontiers of safety technology in automobiles, Toyota completed in 1995 its first prototype Advanced Safety Vehicle, the ASV-1. The ASV-2, which was introduced in 2000, incorporates emerging technologies, such as an autonomous safety support system that uses CCD stereo cameras to recognize obstacles in traffic lanes and an infrastructure-harmonized safety support system to warn the driver of pedestrian crossings. In 2002, Toyota conducted road testing of the ASV-3, a prototype based on further improved infrastructure-harmonized system. With the February 2003 introduction of the Harrier models in Japan, Toyota became the first car manufacturer to implement a pre-crash safety system in its automobiles. This advanced system consists of pre-crash sensors that use millimeter wave radar to detect a possible collision, seat belts that tighten their hold on passengers when a collision is determined to be inevitable and a brake assist system that utilizes power-assisted braking to minimize the speed on impact. In February 2004, Toyota introduced the pre-collision safety system for the first time in the United States by equipping the LS430 with the above features and suspension control features that control nose dives when applying the brakes.

In September 2006, at the time of introduction of LS460 in Japan, Toyota established the world’s first enhanced pre-crash safety system, which added functions to detect pedestrians in front, to support driver steering, and to react to vehicle collision.

Furthermore, in February 2008, Toyota developed the world’s first driver monitoring pre-crash safety system for the Crown sold in Japan, that monitors whether the driver’s eyes are open, in addition to the face monitor which monitors the direction in which the driver is facing.

Toyota’s product development program uses a series of methods which are generally intended to promote timely and appropriate responses to changing market demand. These methods include:

 

   

optimizing and eliminating vehicle platforms,

 

   

sharing parts and components among multiple vehicles,

 

   

shortening the time for development and production preparation by the simultaneous study of design and production engineering processes, and

 

   

using computers for production design and evaluation.

In September 2002, Toyota and Nissan Motor Co. entered into an agreement setting forth the basic terms of technical cooperation and other long-term projects involving hybrid systems. This agreement calls for Toyota to supply state-of-the-art hybrid system components to Nissan for 5 years starting from 2006. In addition, with the aim of promoting technical cooperation, both companies agreed to exchange information on hybrid systems that both Toyota and Nissan are currently developing independently, and to discuss the joint development of related parts and components. In March 2004, Toyota and Ford Motor Company announced that they have entered into licensing agreements for patents related to hybrid systems and emissions purification. Pursuant to the agreements, Toyota will license, to Ford Motor Company, patents related to hybrid system control technology. Further, both companies agreed to a cross-licensing arrangement of emission purification technology patents for lean-burn engines.

Toyota’s research and development expenditures were approximately ¥959 billion in fiscal 2008, ¥891 billion in fiscal 2007 and ¥813 billion in fiscal 2006. Worldwide, approximately 34,000 employees are involved in Toyota’s research and development activities.

Toyota does not consider any one group of patents or licenses to be so important that their expiration or termination would materially affect Toyota’s business. For a further discussion of Toyota’s intellectual property, see “Information on the Company — Business Overview — Intellectual Property”.

This excerpt taken from the TM 20-F filed Jun 25, 2007.

5.C RESEARCH AND DEVELOPMENT, PATENTS AND LICENSES

Toyota’s research and development activities focus on the environment, vehicle safety, information technology and product development.

Toyota’s environmental research and development activities focus on:

 

   

Developing light weight and more fuel-efficient engines and transmissions. These technologies include the direct injection four-stroke gasoline engine, the nitrous oxide storage reduction catalytic system, the common rail direct injection diesel engine and the diesel particulate and nitrous oxide reduction system.

 

   

Developing alternative fuel powering systems for commercial sale. This includes developing hybrid vehicles and fuel-cell vehicles. The second-generation Prius that Toyota introduced in September 2003 features a new hybrid system which decreases negative environmental impact while increasing power and performance. In June 2005, Toyota’s new fuel cell hybrid passenger vehicle became the first vehicle in Japan to acquire vehicle type certification under the Road Vehicles Act, as amended on March 31, 2005, by Japan’s Ministry of Land, Infrastructure and Transport (MLIT). Toyota is also working on the development of alternative fuels for vehicles fueled by compressed natural gas and liquid petroleum gas, as well as for flexible fuel vehicles which are recently drawing a lot of attention. Other Toyota efforts in this area include the development of vehicles fueled by compressed natural gas and other alternative fuel vehicles.

 

   

Recycling of vehicle parts through the development of recycling technologies. Work in this area includes developing uses for shredder residue, the recycling of nickel-metal hydride batteries and the development of vehicles constructed with a high proportion of recyclable parts.

 

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Toyota’s work in the area of vehicle safety is focused on the development of technologies designed to prevent accidents in the first instance, as well as the development of technologies that protect passengers and reduce the damage on impact in the event of an accident. Safety technologies in development include:

 

   

research on protecting diverse passengers, including senior citizens,

 

   

autonomous driving support systems, including frontal crash-prevention support systems, and

 

   

data exchange driving-support systems using advanced communication technologies.

To expand the frontiers of safety technology in automobiles, Toyota completed in 1995 its first prototype Advanced Safety Vehicle, the ASV-1. In 2000, Toyota created a successor prototype, the ASV-2. The ASV-2 incorporates emerging technologies, such as an autonomous safety support system that uses CCD stereo cameras to recognize obstacles in traffic lanes and an infrastructure-harmonized safety support system to warn the driver of pedestrian crossings. In 2002, Toyota conducted road testing of the ASV-3, a prototype based on further improved infrastructure-harmonized system. With the February 2003 introduction of the Harrier models in Japan, Toyota became the first car manufacturer to implement a pre-crash safety system in its automobiles. This advanced system consists of pre-crash sensors that use millimeter wave radar to detect a possible collision, seat belts that tighten their hold on passengers when a collision is determined to be inevitable and a brake assist system that utilizes power-assisted braking to minimize the speed on impact. In February 2004, Toyota introduced the pre-collision safety system for the first time in the United States by equipping the LS430 with the above features and suspension control features that control nose dives when applying the brakes. Toyota plans to further continue its focus on developing practical applications for its advanced safety technologies. In September 2006, at the time of introduction of LS460 in Japan, Toyota established the world’s first advanced pre-crash safety system by adding new functions to the existing pre-crash safety system. Toyota equipped the LS460 with such functions, enabling to detect pedestrians in front, to support driver steering, and to react to vehicles from behind.

Toyota’s product development program uses a series of methods which are generally intended to promote timely and appropriate responses to changing market demand. These methods include:

 

   

optimizing and eliminating vehicle platforms,

 

   

sharing parts and components among multiple vehicles,

 

   

shortening the time for development and production preparation by the simultaneous study of design and production engineering processes, and

 

   

using computers for production design and evaluation.

In September 2002, Toyota and Nissan Motor Co. entered into an agreement setting forth the basic terms of technical cooperation and other long-term projects involving hybrid systems. This agreement calls for Toyota to supply state-of-the-art hybrid system components to Nissan for 5 years starting from 2006. In addition, with the aim of promoting technical cooperation, both companies agreed to exchange information on hybrid systems that both Toyota and Nissan are currently developing independently, and to discuss the joint development of related components. In March 2004, Toyota and Ford Motor Company announced that they have entered into licensing agreements for patents related to hybrid systems and emissions purification. Pursuant to the agreements, Toyota will license, to Ford Motor Company, patents related to hybrid system control technology. Further, both companies agreed to a cross-licensing arrangement of emission purification technology patents for lean-burn engines.

Toyota’s research and development expenditures were approximately ¥891 billion in fiscal 2007, ¥813 billion in fiscal 2006 and ¥755 billion in fiscal 2005. Worldwide, approximately 33,000 employees are involved in Toyota’s research and development activities.

 

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Toyota does not consider any one group of patents or licenses to be so important that their expiration or termination would materially affect Toyota’s business. For a further discussion of Toyota’s intellectual property, see “Information on the Company — Business Overview — Intellectual Property”.

This excerpt taken from the TM 20-F filed Jun 26, 2006.

5.C RESEARCH AND DEVELOPMENT, PATENTS AND LICENSES

Toyota’s research and development activities focus on the environment, vehicle safety, information technology and product development.

Toyota’s environmental research and development activities focus on:

 

    Developing light weight and more fuel-efficient engines and transmissions. These technologies include the direct injection four-stroke gasoline engine, the nitrous oxide storage reduction catalytic system and the common rail direct injection diesel engine.

 

   

Developing alternative fuel powering systems for commercial sale. This includes developing hybrid vehicles and fuel-cell vehicles. The second-generation Prius that Toyota introduced in September 2003 features a new hybrid system which decreases negative environmental impact while increasing power and performance. In June 2005, Toyota’s new fuel cell hybrid passenger vehicle became the first vehicle in Japan to acquire vehicle type certification under the Road Vehicles Act, as amended on March 31,

 

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2005, by Japan’s Ministry of Land, Infrastructure and Transport (MLIT). Other Toyota efforts in this area include the development of vehicles fueled by compressed natural gas and other alternative fuel vehicles.

 

    Recycling of vehicle parts through the development of recycling technologies. Work in this area includes developing uses for shredder residue, the recycling of nickel-metal hydride batteries and the development of vehicles constructed with a high proportion of recyclable parts.

Toyota’s work in the area of vehicle safety is focused on the development of technologies designed to prevent accidents in the first instance, as well as the development of technologies that protect passengers and reduce the damage on impact in the event of an accident. Safety technologies in development include:

 

    research on protecting diverse passengers, including senior citizens,

 

    autonomous driving support systems, including frontal crash-prevention support systems, and

 

    data exchange driving-support systems using advanced communication technologies.

To expand the frontiers of safety technology in automobiles, Toyota completed in 1995 its first prototype Advanced Safety Vehicle, the ASV-1. In 2000, Toyota created a successor prototype, the ASV-2. The ASV-2 incorporates emerging technologies, such as an autonomous safety support system that uses CCD stereo cameras to recognize obstacles in traffic lanes and an infrastructure-harmonized safety support system to warn the driver of pedestrian crossings. In 2002, Toyota conducted road testing of the ASV-3, a prototype based on further improved infrastructure-harmonized system. With the February 2003 introduction of the Harrier models in Japan, Toyota became the first car manufacturer to implement a pre-crash safety system in its automobiles. This advanced system consists of pre-crash sensors that use millimeter wave radar to detect a possible collision, seat belts that tighten their hold on passengers when a collision is determined to be inevitable and a brake assist system that utilizes power-assisted braking to minimize the speed on impact. In February 2004, Toyota introduced the pre-crash safety system for the first time in the United States by equipping the LS430 with the above features and suspension control features that control nose dives when applying the brakes. Toyota plans to further continue its focus on developing practical applications for its advanced safety technologies.

Toyota’s product development program uses a series of methods which are generally intended to promote timely and appropriate responses to changing market demand. These methods include:

 

    reducing the number of vehicle platforms,

 

    sharing parts and components among multiple vehicles,

 

    shortening the time for development and production preparation by the simultaneous study of design and production engineering processes, and

 

    using computers for production design and its evaluation.

In September 2002, Toyota and Nissan Motor Co. entered into an agreement setting forth the basic terms of technical cooperation and other long-term projects involving hybrid systems. This agreement calls for Toyota to supply state-of-the-art hybrid system components to Nissan for 5 years starting from 2006. In addition, with the aim of promoting technical cooperation, both companies agreed to exchange information on hybrid systems that both Toyota and Nissan are currently developing independently, and to discuss the joint development of related components. In March 2004, Toyota and Ford Motor Company announced that they have entered into licensing agreements for patents related to hybrid systems and emissions purification. Pursuant to the agreements, Toyota will license, to Ford Motor Company, patents related to hybrid system control technology. Further, both companies agreed to a cross-licensing arrangement of emission purification technology patents for lean-burn engines.

 

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Toyota’s research and development expenditures were approximately ¥813 billion in fiscal 2006, ¥755 billion in fiscal 2005 and ¥682 billion in fiscal 2004. Worldwide, approximately 28,000 employees are involved in Toyota’s research and development activities.

Toyota does not consider any one group of patents or licenses to be so important that their expiration or termination would materially affect Toyota’s business. For a further discussion of Toyota’s intellectual property, see “Information on the Company — Business Overview — Intellectual Property”.

This excerpt taken from the TM 20-F filed Jun 24, 2005.

5.C RESEARCH AND DEVELOPMENT, PATENTS AND LICENSES

 

Toyota’s research and development activities focus on the environment, vehicle safety, information technology and product development.

 

Toyota’s environmental research and development activities focus on:

 

    Developing light weight and more fuel-efficient engines and transmissions. These technologies include the direct injection four-stroke gasoline engine, the nitrous oxide storage reduction catalytic system and the common rail direct injection diesel engine.

 

    Developing alternative fuel powering systems for commercial sale. This includes developing hybrid vehicles such as the Prius and fuel-cell vehicles. The next-generation Prius that Toyota introduced in September 2003 features a new hybrid system combining decreased environmental impact with increased power and performance. Toyota also began limited sales of a fuel cell hybrid vehicle in Japan and the United States in December 2002. In June 2005, Toyota’s new fuel cell hybrid passenger vehicle became the first vehicle in Japan to acquire vehicle type certification under the Road Vehicles Act, as amended and enacted on March 31, 2005, by Japan’s Ministry of Land, Infrastructure and Transport (MLIT). Other Toyota efforts in this area include the development of vehicles fueled by compressed natural gas and other alternative fuel vehicles. Toyota has formed a research and development alliance with General Motors Corporation to develop future power systems.

 

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    Recycling of vehicle parts through the development of recycling technologies. Work in this area includes developing uses for shredder residue, the recycling of nickel-metal hydride batteries and the development of vehicles constructed with a high proportion of recyclable parts.

 

Toyota’s work in the area of vehicle safety is focused on the development of technologies designed to prevent accidents in the first instance, as well as the development of technologies that protect passengers and reduce the damage on impact in the event of an accident. Safety technologies in development include:

 

    research on protecting diverse passengers, including senior citizens,

 

    autonomous driving support systems, including frontal crash-prevention support systems, and

 

    data exchange driving-support systems using advanced communication technologies.

 

To expand the frontiers of safety technology in automobiles, Toyota completed in 1995 its first prototype Advanced Safety Vehicle, the ASV-1. In 2000, Toyota created a successor prototype, the ASV-2. The ASV-2 incorporates emerging technologies, such as an autonomous safety support system that uses CCD stereo cameras to recognize obstacles in traffic lanes and an infrastructure-harmonized safety support system to warn the driver of pedestrian crossings. In 2002, Toyota conducted road testing of the ASV-3, a prototype based on further improved infrastructure-harmonized system. With the February 2003 introduction of the Harrier models in Japan, Toyota became the first car manufacturer to implement a pre-collision safety system in its automobiles. This advanced system consists of pre-collision sensors that use millimeter wave radar to detect an imminent crash, seat belts that tighten their hold on passengers during the early stage of crash detection and a brake assist system that utilizes power-assisted braking to minimize the speed on impact. In February 2004, Toyota introduced the pre-collision safety system for the first time in the United States by equipping the LS430 with the above features and suspension control features that control nose dives when apply the brakes. Toyota plans to further continue its focus on developing practical applications for its advanced safety technologies.

 

Toyota’s product development program uses a series of methods which are generally intended to promote timely and appropriate responses to changing market demand. These methods include:

 

    reducing the number of vehicle platforms,

 

    sharing parts and components among multiple vehicles,

 

    shortening the time for development and production preparation by the simultaneous study of design and production engineering processes, and

 

    using computers for production design and its evaluation.

 

In September 2002, Toyota and Nissan Motor Co. entered into an agreement setting forth the basic terms of technical cooperation and other long-term projects involving hybrid systems between the parties. This agreement, which aims for a long-term business relationship of 10 years or longer, calls for Toyota to supply state-of-the-art hybrid system components to Nissan. In addition, with the aim of promoting technical cooperation, both companies agreed to exchange information on hybrid systems that both Toyota and Nissan are currently developing independently, and to discuss the joint development of related components. In March 2004, Toyota and Ford Motor Company announced that they have entered into licensing agreements for patents related to hybrid systems and emissions purification. Pursuant to the agreements, Toyota will license to Ford Motor Corporation patents related to hybrid system control technology. Further, both companies agreed to a cross-licensing arrangement of emission purification technology patents for lean-burn engines.

 

Toyota’s research and development expenditures were approximately ¥755 billion in fiscal 2005, ¥682 billion in fiscal 2004 and ¥668 billion in fiscal 2003. Worldwide, approximately 28,000 employees are involved in Toyota’s research and development activities.

 

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Toyota does not consider any one group of patents or licenses to be so important that their expiration or termination would materially affect Toyota’s business. For a further discussion of Toyota’s intellectual property, see “Information on the Company — Business Overview — Intellectual Property”.

 

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