Abstract: A method, system, and computer program product for dynamic creation and customization of a user interface in a web service environment, including dynamically generating and customizing a portlet; providing policy based access to the portlet depending on a consumer of the portlet; providing caching or cache refreshing of a feed to the portlet; and providing authentication of a consumer of the portlet.

Abstract: A vehicle passenger restricting system is provided to restrict passenger movement so that a space between a passenger's head and the ceiling of the vehicle is effectively enlarged when a rollover condition occurs. The vehicle passenger restricting system has a passenger seat, a rollover detector, a seat tilting device and a controller. The rollover detector detects a vehicle rollover condition. The vehicle passenger restricting device restricts passenger movement on the passenger seat. The seat tilting device tilts the seat in a backward direction. The controller activates the seat tilting device to recline the seat backwards when the rollover detector detects the vehicle rollover condition exists. Preferably, the controller also operates the restricting device when it determines that a rollover condition exists.

Abstract: A vehicle passenger restraining system comprises a plurality of passenger restraining devices, upper and lower deformation detecting devices, and a passenger restraining device operating unit. The upper deformation detecting device is disposed in a generally central upper end of a first lateral side of a cabin to output one of a first signal indicative of a first load input from a first direction and a second signal indicative of a second load input from a second direction. The lower deformation detecting device is disposed in a generally central lower end of the first lateral side to output a third signal indicative of a third load input from a third direction. The passenger restraining device operating unit is configured to determine a load input characteristic based on the first, second and third signals to operate at least one of the passenger restraining devices in accordance with the load input characteristic.

Abstract: A vehicle passenger restraining system is basically comprises a plurality of passenger restraining devices, a deformation detecting device and a passenger restraining device operating unit. The passenger restraining devices are configured and arranged to restrain a passenger inside a vehicle. The deformation detecting device is coupled to a vehicle body of the vehicle with the deformation detecting device being configured and arranged to detect a deformation condition of the vehicle body. The passenger restraining device operating unit is configured to obtain impact information of the vehicle based on the deformation condition detected by the deformation detecting device, and to selectively operate at least one of the passenger restraining devices in accordance with the impact information.

Abstract: A vehicle passenger restraining system comprises a knee bolster, a bolster movement structure, a collision detecting section and a control section. The knee bolster is disposed in a front portion of a seat in a vehicle. The bolster movement structure is coupled to the knee bolster to apply a rearwardly directed pulling force to each transverse end of the knee bolster. The collision detecting section is configured and arranged to detect information relating to a collision of the vehicle and a probability of a collision of the vehicle. The control section is configured to operate the bolster movement structure based on the information from the collision detecting section.

Abstract: An impact energy absorbing knee bolster system is basically provided with a load input part and a deformation accepting structure. The load input part is arranged to contact a passenger's knee during a collision. The deformation accepting structure is located between a load input part and a vehicle structural member to deform in response to an impact load imparted by the passenger's knee during a collision. The deformation accepting structure includes a plurality of collapsing parts forming wedge-shaped spaces between each of the collapsing parts and the load input part. Each of the collapsing parts has an inflection point with a longitudinal position between a forward end and a rearward end with the longitudinal positions of the inflection points being different for an upper one of the collapsing parts than for a lower one of the collapsing parts.

Abstract: An impact energy absorbing knee bolster system is basically provided with a lateral offset input restriction structure and a vertical offset input absorption structure. The lateral offset input restriction structure restricts a lateral offset input component of an impact load imparted by a passenger's knee against the knee bolster to lateral direction and promotes deformation of the knee bolster during a collision. The vertical offset input absorption structure absorbs a vertical offset input component of the impact load imparted by the passenger's knee against the knee bolster and to promote deformation of the knee bolster during the collision.

Abstract: A vehicle passenger restricting system is provided to restrict passenger movement so that a space between a passenger's head and the ceiling of the vehicle is effectively enlarged when a rollover condition occurs. The vehicle passenger restricting system has a passenger seat, a rollover detector, a seat tilting device and a controller. The rollover detector detects a vehicle rollover condition. The vehicle passenger restricting device restricts passenger movement on the passenger seat. The seat tilting device tilts the seat in a backward direction. The controller activates the seat tilting device to recline the seat backwards when the rollover detector detects the vehicle rollover condition exists. Preferably, the controller also operates the restricting device when it determines that a rollover condition exists.

Abstract: A vehicle front end structure is configured to handle a front collision by using one or more inflatable bags to bear the collision load and produce a stable reaction force. The front inflatable bag is provided in a region where a colliding object can contact the front end of a vehicle body and configured such that it can deploy and inflate into a wall surface-like shape immediately before a collision. As a result, the collision load of a front collision can be absorbed efficiently. Additionally, since the inflated front inflatable bag serves to bear the collision load as a surface, it can generate a stable reaction force irregardless of the angle at which the collision load is imparted, the size of the colliding object, or size of the overlap ratio.

Abstract: A vehicle passenger restraining system comprises a knee bolster, a bolster movement structure, a collision detecting section and a control section. The knee bolster is disposed in a front portion of a seat in a vehicle. The bolster movement structure is coupled to the knee bolster to apply a rearwardly directed pulling force to each transverse end of the knee bolster. The collision detecting section is configured and arranged to detect information relating to a collision of the vehicle and a probability of a collision of the vehicle. The control section is configured to operate the bolster movement structure based on the information from the collision detecting section.

Abstract: A vehicle headrest apparatus has a headrest unit mounted to an upper end of a seatback. The headrest unit has a headrest members with a head restraining member configured to be tensioned to restrain a passenger's head upon a rear-end collision. The headrest unit quickly and reliably restrains a seated passenger's head during a rear-end collision without utilizing the inertia force of the passenger's body by detecting the rear-end collision and pushing the headrest unit only outward in the forward direction of the vehicle. The headrest unit also has a swing/pushup device that to pushes the headrest members upwardly and forwardly. An auxiliary swing force adding device applies an auxiliary spring force in the deployment direction of the headrest members to increase the deployment speed of the headrest members and shorten the amount of time required to achieve initial contact between the passenger's head H and the head restraining member.

Abstract: A vehicle passenger restraining system is basically comprises a plurality of passenger restraining devices, a deformation detecting device and a passenger restraining device operating unit. The passenger restraining devices are configured and arranged to restrain a passenger inside a vehicle. The deformation detecting device is coupled to a vehicle body of the vehicle with the deformation detecting device being configured and arranged to detect a deformation condition of the vehicle body. The passenger restraining device operating unit is configured to obtain impact information of the vehicle based on the deformation condition detected by the deformation detecting device, and to selectively operate at least one of the passenger restraining devices in accordance with the impact information.

Abstract: A vehicle passenger restraining system comprises a plurality of passenger restraining devices, upper and lower deformation detecting devices, and a passenger restraining device operating unit. The upper deformation detecting device is disposed in a generally central upper end of a first lateral side of a cabin to output one of a first signal indicative of a first load input from a first direction and a second signal indicative of a second load input from a second direction. The lower deformation detecting device is disposed in a generally central lower end of the first lateral side to output a third signal indicative of a third load input from a third direction. The passenger restraining device operating unit is configured to determine a load input characteristic based on the first, second and third signals to operate at least one of the passenger restraining devices in accordance with the load input characteristic.

Abstract: A vehicle body end structure has a longitudinal frame member connected to a transverse frame member by curved parts to disperse the load when the vehicle undergoes an end (rear or front) collision. In particular, wedge-shaped open spaces exist between the interior surfaces of the transverse frame member and the corresponding wall surfaces of the curved parts that face the interior surfaces. Consequently, when the vehicle undergoes an end collision, the inward collapsing of the transverse frame member causes the curved parts to gradually undergo bending deformation while being folded over such that the curved parts touch against the transverse frame member. Deformation control structures are provided on the curved parts to prevent localized stress concentration from occurring and enable the curved parts to deform in a stable manner. Thus, the curved parts are prevented from undergoing acute bending and the input load is absorbed more efficiently.

Abstract: A vehicle body front section structure is provided with longitudinal frame members that are connected by curved parts to the back surface of a widthwise frame member to disperse the load when the vehicle undergoes a front collision. In particular, wedge-shaped open spaces exist between the back surface of the widthwise frame member and the wall surface of the curved part of each longitudinal frame member that faces the back surface. Consequently, when the vehicle undergoes a front collision, the rearward collapsing of the widthwise frame member causes the curved part to gradually undergo bending deformation while being folded over in such a manner that the wall surface thereof that faces the back surface touches against the back surface.

Abstract: A vehicle front end structure is configured to handle a front collision by using one or more inflatable bags to bear the collision load and produce a stable reaction force. The front inflatable bag is provided in a region where a colliding object can contact the front end of a vehicle body and configured such that it can deploy and inflate into a wall surface-like shape immediately before a collision. As a result, the collision load of a front collision can be absorbed efficiently. Additionally, since the inflated front inflatable bag serves to bear the collision load as a surface, it can generate a stable reaction force irregardless of the angle at which the collision load is imparted, the size of the colliding object, or size of the overlap ratio.

Abstract: A vehicle headrest apparatus includes a headrest member including a head restraint section to restrain the head of a seat occupant; and a forward move mechanism to move the head restraint section forward in case of a rear end collision of a vehicle. There is further provided an inclining mechanism to incline the head restraint section forward during a forward movement of the head restraint section, by increasing an amount of a forward movement of an upper part of the head restraint section greater than an amount of a forward movement of a lower part of the head restraint section.

Abstract: A vehicle body end structure has a longitudinal frame member connected to a transverse frame member by curved parts to disperse the load when the vehicle undergoes an end (rear or front) collision. In particular, wedge-shaped open spaces exist between the interior surfaces of the transverse frame member and the corresponding wall surfaces of the curved parts that face the interior surfaces. Consequently, when the vehicle undergoes an end collision, the inward collapsing of the transverse frame member causes the curved parts to gradually undergo bending deformation while being folded over such that the curved parts touch against the transverse frame member. Deformation control structures are provided on the curved parts to prevent localized stress concentration from occurring and enable the curved parts to deform in a stable manner. Thus, the curved parts are prevented from undergoing acute bending and the input load is absorbed more efficiently.

Abstract: A vehicle headrest apparatus has a headrest unit that is mounted to an upper end of a seatback. The headrest unit has a head restraining member with a flexible sheet restraining member configured to be tensioned to restrain a passenger's head when a controller detects a rear-end collision. The head restraining member has a vertical support portion facing the head of the passenger and a horizontal support portion substantially perpendicular to an upper part of the vertical support portion. When a rear-end collision occurs, tension is applied to at least the vertical support portion. In some embodiments, the vertical and horizontal support portions are both formed by the flexible sheet restraining member. In other embodiments, only the vertical support portion is partially formed by the flexible sheet restraining member, and the vertical and horizontal support portions are made of a resilient material having an excellent shape-retaining property.

Abstract: A vehicle headrest apparatus has a headrest unit mounted to an upper end of a seatback. The headrest unit has a headrest members with a head restraining member configured to be tensioned to restrain a passenger's head upon a rear-end collision. The headrest unit quickly and reliably restrains a seated passenger's head during a rear-end collision without utilizing the inertia force of the passenger's body by detecting the rear-end collision and pushing the headrest unit only outward in the forward direction of the vehicle. The headrest unit also has a swing/pushup device that to pushes the headrest members upwardly and forwardly. An auxiliary swing force adding device applies an auxiliary spring force in the deployment direction of the headrest members to increase the deployment speed of the headrest members and shorten the amount of time required to achieve initial contact between the passenger's head H and the head restraining member.