JP2011018165A - Vehicle travel safety device - Google Patents

Vehicle travel safety device Download PDF

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JP2011018165A
JP2011018165A JP2009161716A JP2009161716A JP2011018165A JP 2011018165 A JP2011018165 A JP 2011018165A JP 2009161716 A JP2009161716 A JP 2009161716A JP 2009161716 A JP2009161716 A JP 2009161716A JP 2011018165 A JP2011018165 A JP 2011018165A
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vehicle
crossing
preceding vehicle
collision
course
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Hiroshi Ishikawa
啓 石川
Tomoya Komizo
朋哉 小溝
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Honda Motor Co Ltd
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Honda Motor Co Ltd
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Abstract

PROBLEM TO BE SOLVED: To reduce the risk collision between a vehicle and a preceding vehicle running ahead in the same direction.SOLUTION: The vehicle travel safety device 10 includes: a course predicting part 31 for predicting a course of a vehicle, a crossing vehicle detecting part 32 for detecting a crossing vehicle traveling on a road crossing the course of the vehicle, a crossing-vehicle course predicting part 33 for predicting a course of the crossing vehicle, a preceding vehicle detecting part 35 for detecting a preceding vehicle running ahead in the same direction within a predetermined distance from the vehicle, a collision risk determining part 40 for determining the risk of collision between the vehicle and the crossing vehicle, based on the course of the vehicle and the course of the crossing vehicle, and for determining the risk of collision between the crossing vehicle and the preceding vehicle, based on the course of the preceding vehicle and the course of the crossing vehicle, and a vehicle control part 41 for issuing a predetermined alarm or for performing avoidance control, when the risk of the collision is determined between the vehicle and the crossing vehicle, or when the risk of the collision is determined between the crossing vehicle and the preceding vehicle, in an intersection of the traveling road and the crossing road.

Description

この発明は、車両の走行安全装置に関する。   The present invention relates to a vehicle travel safety device.

従来、例えば交差点などの車両停止位置での発進を規制する発進規制手段を備え、後続車が存在する場合には発進規制手段による発進規制を緩める車両の安全装置が知られている(例えば、特許文献1参照)。   2. Description of the Related Art Conventionally, there is known a vehicle safety device that includes a start restriction unit that restricts start at a vehicle stop position such as an intersection, and relaxes start restriction by the start restriction unit when there is a following vehicle (for example, patent Reference 1).

特許第3173877号公報Japanese Patent No. 3173877

ところで、上記従来技術に係る車両の安全装置によれば、発進規制を緩めたことに起因して、車両停止位置から発進した車両が、この車両の進路に交差する進路を走行する交差車両などの障害物に遭遇して停車あるいは減速すると、この車両の挙動に後続車が対応出来ずに車両に衝突してしまう虞がある。
本発明は上記事情に鑑みてなされたもので、自車両が進行方向前方の先行車両に衝突する可能性を低減することが可能な車両の走行安全装置を提供することを目的としている。
By the way, according to the vehicle safety device according to the above-described prior art, the vehicle started from the vehicle stop position due to the loosening of the start restriction, such as an intersecting vehicle that travels on a route that intersects the route of the vehicle. When an obstacle is encountered and the vehicle stops or decelerates, there is a possibility that the following vehicle cannot cope with the behavior of the vehicle and collides with the vehicle.
The present invention has been made in view of the above circumstances, and an object of the present invention is to provide a vehicle travel safety device capable of reducing the possibility of the host vehicle colliding with a preceding vehicle ahead in the traveling direction.

上記課題を解決して係る目的を達成するために、本発明の第1態様に係る車両の走行安全装置は、自車両の進路を予測する自車進路予測手段(例えば、実施の形態での自車進路予測部31)と、前記自車両の走行路に交差する交差路を走行する交差車両を検出する交差車両検出手段(例えば、実施の形態での交差車両検出部32)と、前記交差車両検出手段により検出された前記交差車両の進路を予測する交差車進路予測手段(例えば、実施の形態での交差車進路予測部33)と、前記自車進路予測手段により予測された前記自車両の進路と前記交差車進路予測手段により予測された前記交差車両の進路とに基づいて、自車両と交差車両との衝突可能性の有無を判定する衝突可能性判定手段(例えば、実施の形態での衝突可能性判定部40)と、前記自車両の走行路と前記交差路との交差点において、前記衝突可能性判定手段により前記自車両と前記交差車両との衝突可能性が有ると判定された場合に、所定の警報または回避制御を実行する制御手段(例えば、実施の形態での車両制御部41)とを備える車両の走行安全装置であって、前記自車両から所定距離以内の進行方向前方に存在する先行車両の位置を検出する先行車検出手段(例えば、実施の形態での先行車両検出部35)を備え、前記衝突可能性判定手段は、前記先行車検出手段により前記先行車両の位置が検出された場合に、該先行車両の位置と前記交差車進路予測手段により予測された前記交差車両の進路とに基づいて、前記交差車両と前記先行車両との衝突可能性の有無を判定し、前記制御手段は、前記衝突可能性判定手段により前記交差車両と前記先行車両との衝突可能性が有ると判定された場合に、前記所定の警報または前記回避制御を実行する。   In order to solve the above-described problems and achieve the object, the vehicle travel safety apparatus according to the first aspect of the present invention is a vehicle route prediction means for predicting the route of the vehicle (for example, the vehicle A vehicle course prediction unit 31), a crossing vehicle detection means (for example, a crossing vehicle detection unit 32 in the embodiment) that detects a crossing vehicle that travels on a crossing road that intersects the traveling road of the host vehicle, and the crossing vehicle An intersecting vehicle route predicting unit (for example, an intersecting vehicle route predicting unit 33 in the embodiment) for predicting a route of the intersecting vehicle detected by the detecting unit, and the own vehicle predicted by the own vehicle route predicting unit Collision possibility determination means for determining the possibility of collision between the own vehicle and the intersecting vehicle based on the course and the course of the intersecting vehicle predicted by the intersection vehicle course prediction means (for example, in the embodiment) Collision possibility determination unit 40) A predetermined warning or avoidance control when the collision possibility determination means determines that there is a collision possibility between the own vehicle and the intersection vehicle at an intersection between the traveling road of the own vehicle and the intersection. A vehicle travel safety device comprising a control means (for example, a vehicle control unit 41 in the embodiment) for detecting the position of a preceding vehicle existing ahead in the traveling direction within a predetermined distance from the host vehicle. Preceding vehicle detection means (for example, the preceding vehicle detection unit 35 in the embodiment), and the collision possibility determination means is configured to detect the preceding vehicle when the position of the preceding vehicle is detected by the preceding vehicle detection means. Based on the position of the vehicle and the course of the intersecting vehicle predicted by the intersecting vehicle course predicting means, it is determined whether or not there is a possibility of collision between the intersecting vehicle and the preceding vehicle, and the control means is capable of the collision If the possibility of collision between the preceding vehicle and the crossing vehicle is determined that there the determination unit, executes the predetermined alarm or the avoidance control.

さらに、本発明の第2態様に係る車両の走行安全装置は、前記交差車進路予測手段により予測された前記交差車両の進路に基づいて、該進路に沿う前記交差車両の前記自車両に近接する側の側面位置を推定する側面位置推定手段(例えば、実施の形態での側面位置検出部34)と、前記先行車両の車長を推定する車長推定手段(例えば、実施の形態での車長推定部36)と、前記先行車検出手段により検出された前記先行車両の位置と前記車長推定手段により推定された前記先行車両の車長とに基づいて、該先行車両の前端位置を推定する前端位置推定手段(例えば、実施の形態での前端位置推定部37)とを備え、前記衝突可能性判定手段は、前記側面位置推定手段により推定された前記交差車両の側面位置から前記前端位置推定手段により推定された前記先行車両の前端位置までの距離に基づいて、前記交差車両と前記先行車両との衝突可能性の有無を判定する。   Further, the vehicle travel safety device according to the second aspect of the present invention is based on the route of the intersecting vehicle predicted by the intersecting vehicle route predicting means, and is close to the own vehicle of the intersecting vehicle along the route. Side position estimation means for estimating the side position on the side (for example, the side position detection unit 34 in the embodiment) and vehicle length estimation means for estimating the vehicle length of the preceding vehicle (for example, the vehicle length in the embodiment) The front end position of the preceding vehicle is estimated based on the estimation unit 36), the position of the preceding vehicle detected by the preceding vehicle detection means, and the vehicle length of the preceding vehicle estimated by the vehicle length estimation means. Front end position estimating means (for example, the front end position estimating unit 37 in the embodiment), and the collision possibility determining means is configured to estimate the front end position from the side surface position of the intersecting vehicle estimated by the side surface position estimating means. By means Based on the distance to the estimated front end position of the preceding vehicle, determines the presence or absence of possibility of collision between the preceding vehicle and the intersecting vehicle.

さらに、本発明の第3態様に係る車両の走行安全装置は、前記先行車両の制動灯が点灯したか否かを判定する制動灯点灯判定手段(例えば、実施の形態での制動灯点灯判定部38と)を備え、前記衝突可能性判定手段は、前記側面位置推定手段により推定された前記他車両の側面位置から前記前端位置推定手段により推定された前記先行車両の前端位置までの距離が所定距離以下であって、かつ、前記制動灯点灯判定手段により前記先行車両の制動灯が点灯していないと判定された場合に、前記交差車両と前記先行車両との衝突可能性が有ると判定する。   Furthermore, the vehicle travel safety device according to the third aspect of the present invention provides a brake light lighting determination means for determining whether or not the brake light of the preceding vehicle has been turned on (for example, the brake light lighting determination unit in the embodiment). 38), and the collision possibility determination means has a predetermined distance from the side position of the other vehicle estimated by the side position estimation means to the front end position of the preceding vehicle estimated by the front end position estimation means. It is determined that there is a possibility of collision between the intersecting vehicle and the preceding vehicle when the distance is equal to or less than the distance and the braking light lighting determination unit determines that the braking light of the preceding vehicle is not lit. .

本発明の第1態様に係る車両の走行安全装置によれば、先行車両が交差車両との衝突により停車あるいは交差車両に遭遇して減速する場合であっても、先行車両の車両挙動を予測して、所定の警報または回避制御を実行することができ、自車両と先行車両との衝突可能性を低減することができる。   According to the vehicle travel safety device of the first aspect of the present invention, the vehicle behavior of the preceding vehicle is predicted even if the preceding vehicle stops or encounters the intersecting vehicle and decelerates due to a collision with the intersecting vehicle. Thus, predetermined warning or avoidance control can be executed, and the possibility of collision between the host vehicle and the preceding vehicle can be reduced.

さらに、本発明の第2態様に係る車両の走行安全装置によれば、先行車両と交差車両との衝突可能性の有無の判定精度を向上させることができ、警報または回避制御が過剰に実行されることを防止することができる。   Furthermore, according to the vehicle travel safety device of the second aspect of the present invention, it is possible to improve the determination accuracy of the possibility of collision between the preceding vehicle and the crossing vehicle, and the warning or avoidance control is performed excessively. Can be prevented.

さらに、本発明の第3態様に係る車両の走行安全装置によれば、先行車両の制動灯の点灯状態を先行車両と交差車両との衝突可能性の有無の判定に反映させることができ、先行車両と交差車両との衝突可能性の有無の判定精度を向上させることができ、警報または回避制御が過剰に実行されることを防止することができる。   Furthermore, according to the vehicle travel safety device of the third aspect of the present invention, the lighting state of the brake light of the preceding vehicle can be reflected in the determination of the possibility of collision between the preceding vehicle and the crossing vehicle. It is possible to improve the determination accuracy of the possibility of collision between the vehicle and the crossing vehicle, and it is possible to prevent the warning or the avoidance control from being performed excessively.

本発明の実施の形態に係る車両の走行安全装置の構成図である。1 is a configuration diagram of a vehicle travel safety device according to an embodiment of the present invention. 本発明の実施の形態に係る自車両と交差車両と先行車両との相対位置の例を示す図である。It is a figure which shows the example of the relative position of the own vehicle which concerns on embodiment of this invention, a crossing vehicle, and a preceding vehicle. 本発明の実施の形態に係る車両の走行安全装置の動作を示すフローチャートである。It is a flowchart which shows operation | movement of the driving safety device of the vehicle which concerns on embodiment of this invention. 本発明の実施の形態に係る車両の走行安全装置の動作を示すフローチャートである。It is a flowchart which shows operation | movement of the driving safety device of the vehicle which concerns on embodiment of this invention.

以下、本発明の一実施形態に係る車両の走行安全装置について添付図面を参照しながら説明する。
本実施の形態による車両の走行安全装置10は、例えば図1に示すように、内燃機関(E)の駆動力をトランスミッション(T/M)を介して車両の駆動輪(図示略)に伝達する車両に搭載され、外界センサ11と、車両状態センサ12と、処理装置13と、スロットルアクチュエータ14と、ブレーキアクチュエータ15と、ステアリングアクチュエータ16と、報知装置17とを備えて構成されている。
Hereinafter, a vehicle travel safety apparatus according to an embodiment of the present invention will be described with reference to the accompanying drawings.
The vehicle travel safety device 10 according to the present embodiment transmits the driving force of the internal combustion engine (E) to the driving wheels (not shown) of the vehicle via a transmission (T / M), for example, as shown in FIG. The vehicle is mounted on a vehicle and includes an external sensor 11, a vehicle state sensor 12, a processing device 13, a throttle actuator 14, a brake actuator 15, a steering actuator 16, and a notification device 17.

外界センサ11は、例えば赤外光レーザやミリ波などの電磁波によるレーダ装置および撮像装置を備えて構成されている。
例えばレーダ装置は、自車両の外界に設定された検出対象領域(例えば、右前方と左前方となど)を複数の角度領域に分割し、各角度領域を走査するようにして、電磁波の発信信号を発信する。そして、各発信信号が自車両の外部の物体(例えば、他車両や構造物など)によって反射されることで生じた反射信号を受信し、レーダ装置から外部の物体までの距離に係る検知信号を生成し、処理装置13に出力する。
また、例えば撮像装置は、自車両の外界に設定された撮像領域(例えば、右前方と左前方となど)をカメラにより撮像して得た画像に画像処理を行なって画像データを生成し、処理装置13に出力する。
The external sensor 11 includes, for example, a radar device and an imaging device using electromagnetic waves such as infrared lasers and millimeter waves.
For example, the radar device divides a detection target region (for example, right front and left front) set in the external environment of the host vehicle into a plurality of angle regions, and scans each angle region to generate an electromagnetic wave transmission signal. To send. And each reflected signal receives the reflected signal which arose by reflecting by the external object (for example, other vehicles, structures, etc.) of the own vehicle, and the detection signal concerning the distance from the radar apparatus to the external object is received. Generate and output to the processing device 13.
In addition, for example, the imaging device performs image processing on an image obtained by imaging an imaging region (for example, right front and left front) set in the external environment of the host vehicle by using a camera, and generates image data. Output to the device 13.

車両状態センサ12は、例えば、自車両の駆動輪の回転速度(車輪速)を検出する車輪速センサと、車体に作用する加速度を検知する加速度センサと、車体の姿勢や進行方向を検知するジャイロセンサと、ヨーレート(車両重心の上下方向軸回りの回転角速度)を検知するヨーレートセンサと、例えば人工衛星を利用して自車両の位置を測定するためのGPS(Global Positioning System)信号などの測位信号を受信する測位信号受信機と、運転者による運転操作(例えば、アクセルペダルの踏み込み操作量、ブレーキペダルの踏み込み操作量、ステアリングホイールの舵角、シフトポジションなど)を検出する各センサとなどを備えて構成され、自車両の各種の車両情報の検知結果の信号を出力する。   The vehicle state sensor 12 includes, for example, a wheel speed sensor that detects the rotational speed (wheel speed) of the driving wheel of the host vehicle, an acceleration sensor that detects acceleration acting on the vehicle body, and a gyro that detects the posture and traveling direction of the vehicle body. Sensor, yaw rate (rotational angular velocity around the vertical axis of the center of gravity of the vehicle), and positioning signals such as GPS (Global Positioning System) signals for measuring the position of the vehicle using an artificial satellite, for example A positioning signal receiver that receives the signal and each sensor that detects the driving operation by the driver (for example, accelerator pedal depression amount, brake pedal depression amount, steering wheel steering angle, shift position, etc.) And outputs signals of detection results of various types of vehicle information of the host vehicle.

処理装置13は、例えば自車進路予測部31と、交差車両検出部32と、交差車進路予測部33と、側面位置検出部34と、先行車両検出部35と、車長推定部36と、前端位置推定部37と、制動灯点灯判定部38と、交差点判定部39と、衝突可能性判定部40と、車両制御部41とを備えて構成されている。   The processing device 13 includes, for example, a host vehicle course prediction unit 31, a crossing vehicle detection unit 32, a crossing vehicle course prediction unit 33, a side position detection unit 34, a preceding vehicle detection unit 35, a vehicle length estimation unit 36, A front end position estimation unit 37, a brake lamp lighting determination unit 38, an intersection determination unit 39, a collision possibility determination unit 40, and a vehicle control unit 41 are provided.

自車進路予測部31は、例えば車両状態センサ12の車輪速センサおよびヨーレートセンサなどから出力される信号に基づき、自車両の進行方向を算出し、さらに、自車両の進行方向に基づき自車両の進路を予測する。
交差車両検出部32は、例えば外界センサ11のレーダ装置から出力される検知信号などに基づき、例えば図2(A),(B)に示すように、自車進路予測部31により予測された自車両の進路と交差する進行方向で移動する他車両(交差車両)を検出する。
The host vehicle course prediction unit 31 calculates the traveling direction of the host vehicle based on, for example, signals output from the wheel speed sensor and the yaw rate sensor of the vehicle state sensor 12, and further, based on the traveling direction of the host vehicle. Predict the course.
For example, as shown in FIGS. 2 (A) and 2 (B), the crossing vehicle detection unit 32 is based on the detection signal output from the radar device of the external sensor 11, for example. The other vehicle (crossing vehicle) that moves in the traveling direction that intersects the course of the vehicle is detected.

交差車進路予測部33は、例えば外界センサ11のレーダ装置から逐次出力される検知信号などに基づき、レーダ装置から発信されて交差車両で反射される電磁波の複数の反射点から交差車両の位置を代表する代表点(例えば、自車両に最も近い反射点や複数の反射点の重心など)を算出し、この代表点の時系列変化から交差車両の進路を予測する。   The crossing vehicle course prediction unit 33 determines the position of the crossing vehicle from a plurality of reflection points of electromagnetic waves transmitted from the radar device and reflected by the crossing vehicle based on, for example, detection signals sequentially output from the radar device of the external sensor 11. A representative representative point (for example, a reflection point closest to the host vehicle or the center of gravity of a plurality of reflection points) is calculated, and a course of the intersecting vehicle is predicted from a time series change of the representative point.

側面位置検出部34は、例えば外界センサ11のレーダ装置から逐次出力される検知信号などに基づき、交差車進路予測部33により予測された交差車両の進路に沿う進行方向での交差車両の自車両に近接する側の側面位置を検出する。   The side surface position detection unit 34, for example, based on detection signals sequentially output from the radar device of the external sensor 11, etc., the own vehicle of the crossing vehicle in the traveling direction along the course of the crossing vehicle predicted by the crossing vehicle route prediction unit 33 The side surface position on the side close to is detected.

先行車両検出部35は、例えば外界センサ11のレーダ装置から出力される検知信号などに基づき、例えば図2(A),(B)に示すように、自車両から所定距離以内の進行方向前方に存在する先行車両の位置を検出する。
車長推定部36は、例えば外界センサ11の撮像装置から出力される画像データなどに基づき、先行車両検出部35により検出された先行車両の車長(車両前後方向の全長)を推定する。
例えば先行車両の後部の画像データに対して、所定の車種のデータとのパターンマッチングの処理を行ない、このパターンマッチングにより先行車両の車種を特定することができた場合には、この車種に対して予め設定されている車長を取得する。
また、例えば外界センサ11の撮像装置から出力される画像データなどに基づき、先行車両のナンバープレートの種別および車体形状を検知し、予めナンバープレートの種別および車体形状に応じて設定された所定の車長のデータを取得する。所定の車長のデータは、例えばナンバープレートの配色などから軽自動車のナンバープレートであれば車長cl=3.4mとされ、例えば車体形状がワゴンタイプであれば車長cl=4.8mとされ、車体形状がセダンタイプであれば車長cl=4.6mとされ、車体形状がハッチバックタイプであれば車長cl=4.2mとされている。
The preceding vehicle detection unit 35 is, for example, based on a detection signal output from the radar device of the external sensor 11 and the like, as shown in FIGS. 2 (A) and 2 (B), for example, ahead of the traveling direction within a predetermined distance from the own vehicle. The position of the existing preceding vehicle is detected.
The vehicle length estimation unit 36 estimates the vehicle length (the total length in the vehicle front-rear direction) of the preceding vehicle detected by the preceding vehicle detection unit 35 based on, for example, image data output from the imaging device of the external sensor 11.
For example, if the image data of the rear part of the preceding vehicle is subjected to pattern matching processing with data of a predetermined vehicle type, and the vehicle type of the preceding vehicle can be specified by this pattern matching, The preset vehicle length is acquired.
Also, for example, based on image data output from the imaging device of the external sensor 11, the type of the license plate and the vehicle body shape of the preceding vehicle are detected, and a predetermined vehicle set in advance according to the type of the license plate and the vehicle body shape. Get long data. The data of the predetermined vehicle length is, for example, a vehicle length cl = 3.4 m if it is a license plate of a light vehicle due to the color of the license plate, etc. If the vehicle body shape is a wagon type, for example, the vehicle length cl = 4.8 m. If the vehicle body shape is a sedan type, the vehicle length cl = 4.6 m, and if the vehicle body shape is a hatchback type, the vehicle length cl = 4.2 m.

前端位置推定部37は、例えば外界センサ11のレーダ装置から出力される検知信号などと、車長推定部36により推定された車長とに基づき、先行車両の前端位置を推定する。
制動灯点灯判定部38は、例えば外界センサ11の撮像装置から出力される画像データに基づき、先行車両の後部の画像データから先行車両の制動灯が点灯したか否かを判定する。
The front end position estimation unit 37 estimates the front end position of the preceding vehicle based on, for example, the detection signal output from the radar device of the external sensor 11 and the vehicle length estimated by the vehicle length estimation unit 36.
For example, based on the image data output from the imaging device of the external sensor 11, the brake light lighting determination unit 38 determines whether the brake light of the preceding vehicle has been lit from the image data of the rear part of the preceding vehicle.

交差点判定部39は、例えば外界センサ11のレーダ装置から逐次出力される検知信号、あるいは、撮像装置から出力される画像データなどに基づき、自車両が交差点付近に位置するか否かを判定する。   The intersection determination unit 39 determines whether or not the host vehicle is positioned near the intersection based on, for example, detection signals sequentially output from the radar device of the external sensor 11 or image data output from the imaging device.

衝突可能性判定部40は、交差点判定部39により自車両が交差点付近に位置すると判定された場合などにおいて、自車進路予測部31により予測された自車両の進路と、交差車進路予測部33により予測れた交差車両の進路とに基づき、例えば衝突回避に要する減速度などを考慮して、自車両と交差車両との衝突可能性の有無を判定する。
また、衝突可能性判定部40は、交差点判定部39により自車両が交差点付近に位置すると判定され、自車両が先行車両に追従して停止状態から発進状態へと移行する場合などにおいて、交差車進路予測部33により予測された交差車両の進路と、前端位置推定部37により推定された先行車両の前端位置と、先行車両の進路や進行方向とに基づき、例えば衝突回避に要する減速度などを考慮して、先行車両と交差車両との衝突可能性の有無を判定する。
The collision possibility determination unit 40, for example, when the intersection determination unit 39 determines that the host vehicle is located in the vicinity of the intersection, and the course of the host vehicle predicted by the host vehicle route prediction unit 31 and the intersection vehicle route prediction unit 33. Based on the predicted path of the intersecting vehicle, the possibility of collision between the host vehicle and the intersecting vehicle is determined in consideration of, for example, the deceleration required for collision avoidance.
Further, the collision possibility determination unit 40 determines that the own vehicle is located near the intersection by the intersection determination unit 39, and when the own vehicle follows the preceding vehicle and shifts from the stop state to the start state. Based on the course of the intersecting vehicle predicted by the course prediction unit 33, the front end position of the preceding vehicle estimated by the front end position estimation unit 37, and the course and traveling direction of the preceding vehicle, for example, a deceleration required for collision avoidance is calculated. Considering this, the presence or absence of a collision possibility between the preceding vehicle and the crossing vehicle is determined.

例えば、衝突可能性判定部40は、外界センサ11のレーダ装置から出力される検知信号に基づき、例えば図2(A)に示すように、自車両(例えば、自車両の前端)から交差車両(例えば、交差車両の側面位置)までの距離d1と、自車両(例えば、自車両の前端)から先行車両(例えば、先行車両の後端)までの距離d2と、先行車両の車長clとにより、先行車両(例えば、先行車両の前端位置)から交差車両(例えば、交差車両の側面位置)までの距離dl(=d1−d2−cl)を算出する。そして、先行車両から交差車両までの距離dlが所定閾値未満であるか否かを判定し、この判定結果において距離dlが所定閾値未満であれば先行車両と交差車両との衝突可能性が有ると判定する。
なお、距離dlに対する所定閾値は、例えば先行車両の制動灯が点灯しているか否かの判定結果と、例えば外界センサ11のレーダ装置から逐次出力される検知信号などに基づき検出される先行車両の速度V1とに応じて設定されている。例えば先行車両の制動灯が無点灯であれば、速度V1の先行車両が所定の第1減速度g1(例えば、0.2G(=0.2×9.8m/s)など)で停止するまでに要する距離が、距離dlに対する所定閾値である第1先行車両接近閾値dl_th1(=V1/(2×g1))として設定される。また、例えば先行車両の制動灯が点灯であれば、速度V1の先行車両が第1減速度g1よりも大きい所定の第2減速度g2(例えば、0.5G(=0.5×9.8m/s)など)で停止するまでに要する距離が、距離dlに対する所定閾値である第2先行車両接近閾値dl_th2(=V1/(2×g2))として設定される。
そして、衝突可能性判定部40は、先行車両と交差車両との衝突可能性が有ると判定した場合には、さらに、例えば図2(B)に示すように、先行車両が停止したときの自車両(例えば、自車両の前端)から先行車両(例えば、先行車両の後端)までの距離ds(=d2+dl)を算出し、例えば衝突回避に要する減速度などを考慮して、自車両が距離ds以内で停止可能か否かを判定することにより、自車両と先行車両との衝突可能性が有るか否かを判定する。
For example, the collision possibility determination unit 40, based on the detection signal output from the radar device of the external sensor 11, for example, as shown in FIG. 2A, from the own vehicle (for example, the front end of the own vehicle) For example, the distance d1 to the side position of the intersecting vehicle), the distance d2 from the own vehicle (for example, the front end of the own vehicle) to the preceding vehicle (for example, the rear end of the preceding vehicle), and the vehicle length cl of the preceding vehicle The distance dl (= d1-d2-cl) from the preceding vehicle (for example, the front end position of the preceding vehicle) to the intersecting vehicle (for example, the side surface position of the intersecting vehicle) is calculated. Then, it is determined whether or not the distance dl from the preceding vehicle to the intersecting vehicle is less than a predetermined threshold. If the distance dl is less than the predetermined threshold in this determination result, there is a possibility of collision between the preceding vehicle and the intersecting vehicle. judge.
Note that the predetermined threshold value for the distance dl is, for example, that of the preceding vehicle detected based on the determination result of whether or not the brake light of the preceding vehicle is lit, and the detection signal sequentially output from the radar device of the external sensor 11, for example. It is set according to the speed V1. For example, if the brake light of the preceding vehicle is not lit, the preceding vehicle at the speed V1 stops at a predetermined first deceleration g1 (for example, 0.2 G (= 0.2 × 9.8 m / s 2 )). The distance required until this time is set as a first preceding vehicle approach threshold dl_th1 (= V1 2 / (2 × g1)), which is a predetermined threshold for the distance dl. Further, for example, if the brake light of the preceding vehicle is lit, the preceding vehicle having the speed V1 has a predetermined second deceleration g2 (for example, 0.5G (= 0.5 × 9.8 m) that is larger than the first deceleration g1. / S 2 )) is set as a second preceding vehicle approach threshold dl_th2 (= V1 2 / (2 × g2)) which is a predetermined threshold for the distance dl.
If the collision possibility determination unit 40 determines that there is a possibility of collision between the preceding vehicle and the crossing vehicle, the collision possibility determination unit 40 further detects when the preceding vehicle stops, for example, as shown in FIG. The distance ds (= d2 + dl) from the vehicle (for example, the front end of the own vehicle) to the preceding vehicle (for example, the rear end of the preceding vehicle) is calculated, and the own vehicle is By determining whether or not it is possible to stop within ds, it is determined whether or not there is a possibility of collision between the host vehicle and the preceding vehicle.

車両制御部41は、衝突可能性判定部40による判定結果に応じて、自車両の走行状態を制御する制御信号を出力する。この制御信号は、例えば、トランスミッション(T/M)の変速動作を制御する制御信号およびスロットルアクチュエータ14により内燃機関(E)の駆動力を制御する制御信号およびブレーキアクチュエータ15により減速を制御する制御信号およびステアリングアクチュエータ16により転舵を制御する制御信号などである。
また、車両制御部41は、自車両の乗員に各種の情報を報知する場合に、報知装置17を制御する制御信号を出力する。
The vehicle control unit 41 outputs a control signal for controlling the traveling state of the host vehicle according to the determination result by the collision possibility determination unit 40. This control signal includes, for example, a control signal for controlling the transmission operation of the transmission (T / M), a control signal for controlling the driving force of the internal combustion engine (E) by the throttle actuator 14, and a control signal for controlling the deceleration by the brake actuator 15. And a control signal for controlling the turning by the steering actuator 16.
Moreover, the vehicle control part 41 outputs the control signal which controls the alerting | reporting apparatus 17, when notifying the passenger | crew of the own vehicle various information.

なお、報知装置17は、例えば、触覚的伝達装置と、視覚的伝達装置と、聴覚的伝達装置とを備えて構成されている。
触覚的伝達装置は、例えばシートベルト装置や操舵制御装置などであって、車両制御部41から出力される制御信号に応じて、例えばシートベルトに所定の張力を発生させて自車両の乗員が触覚的に知覚可能な締め付け力を作用させたり、例えばステアリングホイールに自車両の運転者が触覚的に知覚可能な振動(ステアリング振動)を発生させることによって、接近交差車両との衝突発生の可能性があることを乗員に認識させる。
視覚的伝達装置は、例えば表示装置などであって、車両制御部41から入力される制御信号に応じて、例えば表示装置に所定の警報情報を表示したり、所定の警報灯を点滅させることによって、接近交差車両との衝突発生の可能性があることを乗員に認識させる。
聴覚的伝達装置は、例えばスピーカなどであって、車両制御部41から入力される制御信号に応じて所定の警報音や音声などを出力することによって、接近交差車両との衝突発生の可能性があることを乗員に認識させる。
The notification device 17 includes, for example, a tactile transmission device, a visual transmission device, and an auditory transmission device.
The tactile transmission device is, for example, a seat belt device or a steering control device, and generates a predetermined tension on the seat belt, for example, in response to a control signal output from the vehicle control unit 41 so that an occupant of the host vehicle can sense the touch. The possibility of a collision with an approaching crossing vehicle by applying a perceptible tightening force or generating vibration (steering vibration) that can be perceived by the driver of the vehicle on the steering wheel. Let the crew recognize that there is.
The visual transmission device is, for example, a display device, for example, by displaying predetermined alarm information on the display device or blinking a predetermined alarm light in accordance with a control signal input from the vehicle control unit 41. The occupant is made aware that there is a possibility of a collision with the approaching crossing vehicle.
The auditory transmission device is, for example, a speaker and outputs a predetermined warning sound or voice according to a control signal input from the vehicle control unit 41, so that there is a possibility of occurrence of a collision with an approaching crossing vehicle. Let the crew recognize that there is.

本実施の形態による車両の走行安全装置10は上記構成を備えており、次に、この車両の走行安全装置10の動作について説明する。   The vehicle travel safety device 10 according to the present embodiment has the above-described configuration. Next, the operation of the vehicle travel safety device 10 will be described.

先ず、例えば図3に示すステップS01においては、自車両の進路と交差する進行方向で移動する交差車両を検出する。
次に、ステップS02においては、交差車両の進路を予測し、自車両から交差車両までの距離d1を検出する。
次に、ステップS03においては、自車両から所定距離以内の進行方向前方に存在する先行車両の位置を検出する。
First, for example, in step S01 shown in FIG. 3, an intersecting vehicle that moves in a traveling direction that intersects the course of the host vehicle is detected.
Next, in step S02, the course of the intersecting vehicle is predicted, and the distance d1 from the own vehicle to the intersecting vehicle is detected.
Next, in step S03, the position of the preceding vehicle existing ahead in the traveling direction within a predetermined distance from the host vehicle is detected.

次に、ステップS04においては、自車両(例えば、自車両の前端)から先行車両(例えば、先行車両の後端)までの距離d2を検出する。
次に、ステップS05においては、外界センサ11の撮像装置から出力される画像データに基づき、先行車両の後部の画像データを取得する。
次に、ステップS06においては、先行車両の後部の画像データに対して、所定の車種のデータとのパターンマッチングの処理を行なう。
そして、ステップS07においては、先行車両の後部の画像データに対してマッチングが有るか否かを判定する。
この判定結果が「YES」の場合には、ステップS08に進み、このステップS08においては、所定の車種のデータから先行車両の車種に応じた車長clを取得し、後述するステップS14に進む。
一方、この判定結果が「NO」の場合には、ステップS09に進む。
Next, in step S04, the distance d2 from the own vehicle (for example, the front end of the own vehicle) to the preceding vehicle (for example, the rear end of the preceding vehicle) is detected.
Next, in step S05, the image data of the rear part of the preceding vehicle is acquired based on the image data output from the imaging device of the external sensor 11.
Next, in step S06, pattern matching processing is performed on the image data of the rear part of the preceding vehicle with data of a predetermined vehicle type.
In step S07, it is determined whether or not there is matching with the rear image data of the preceding vehicle.
If this determination is “YES”, the flow proceeds to step S08, and in this step S08, the vehicle length cl corresponding to the vehicle type of the preceding vehicle is acquired from the data of the predetermined vehicle type, and the flow proceeds to step S14 described later.
On the other hand, if this determination is “NO”, the flow proceeds to step S 09.

次に、ステップS09においては、先行車両の後部の画像データからナンバープレートの種別を判定する。
そして、ステップS10においては、軽自動車のナンバープレートであるか否かを判定する。
この判定結果が「YES」の場合には、ステップS11に進み、このステップS11においては、予め軽自動車に対して設定された所定長#cl(=3.4mなど)を車長clとし、後述するステップS14に進む。
一方、この判定結果が「NO」の場合には、ステップS12に進み、このステップS12においては、先行車両の後部の画像データから車体形状を推定する。
そして、ステップS13においては、車体形状に対して予め設定されている車長clを取得する。
Next, in step S09, the type of the license plate is determined from the image data of the rear part of the preceding vehicle.
And in step S10, it is determined whether it is a license plate of a light vehicle.
If this determination is “YES”, the flow proceeds to step S 11, in which a predetermined length #cl (= 3.4 m, etc.) set in advance for the light vehicle is set as the vehicle length cl, which will be described later. The process proceeds to step S14.
On the other hand, if this determination is “NO”, the flow proceeds to step S 12, where the vehicle body shape is estimated from the image data of the rear part of the preceding vehicle.
In step S13, a vehicle length cl preset for the vehicle body shape is acquired.

そして、ステップS14においては、先行車両(例えば、先行車両の前端位置)から交差車両(例えば、交差車両の側面位置)までの距離dl(=d1−d2−cl)を算出する。
そして、ステップS15においては、後述するように、先行車両の速度V1と距離dlとなどに基づき、先行車両と交差車両との衝突可能性の有無を判定する。
そして、ステップS16においては、先行車両と交差車両との衝突可能性があるか否かを判定する。
この判定結果が「NO」の場合には、エンドに進む。
一方、この判定結果が「YES」の場合には、ステップS17に進む。
In step S14, a distance dl (= d1-d2-cl) from the preceding vehicle (for example, the front end position of the preceding vehicle) to the intersecting vehicle (for example, the side surface position of the intersecting vehicle) is calculated.
In step S15, as will be described later, whether or not there is a possibility of collision between the preceding vehicle and the crossing vehicle is determined based on the speed V1 of the preceding vehicle and the distance dl.
In step S16, it is determined whether or not there is a possibility of collision between the preceding vehicle and the crossing vehicle.
If this determination is “NO”, the flow proceeds to the end.
On the other hand, if this determination is “YES”, the flow proceeds to step S17.

そして、ステップS17においては、先行車両が停止したときの自車両(例えば、自車両の前端)から先行車両(例えば、先行車両の後端)までの距離ds(=d2+dl)を算出する。
そして、ステップS18においては、自車両が距離ds以内で停止可能か否かを判定する。
この判定結果が「YES」の場合には、エンドに進む。
一方、この判定結果が「NO」の場合には、ステップS19に進む。
そして、ステップS19においては、警報の報知や自車両の走行状態などを制御する衝突回避制御を実行し、エンドに進む。
In step S17, a distance ds (= d2 + dl) from the own vehicle (for example, the front end of the own vehicle) to the preceding vehicle (for example, the rear end of the preceding vehicle) when the preceding vehicle stops is calculated.
In step S18, it is determined whether or not the host vehicle can be stopped within the distance ds.
If this determination is “YES”, the flow proceeds to the end.
On the other hand, if this determination is “NO”, the flow proceeds to step S 19.
In step S19, the collision avoidance control for controlling the alarm notification and the traveling state of the host vehicle is executed, and the process proceeds to the end.

以下に、上述したステップS15の処理について説明する。
先ず、例えば図4に示すステップS31においては、先行車両の速度V1と、所定の第1減速度g1とに基づき、第1先行車両接近閾値dl_th1(=V1/(2×g1))を算出する。
そして、ステップS32においては、外界センサ11の撮像装置から出力される画像データに基づき、先行車両の後部の画像データから先行車両の制動灯の点灯状態を件shつする。
Below, the process of step S15 mentioned above is demonstrated.
First, for example, in step S31 shown in FIG. 4, the first preceding vehicle approach threshold dl_th1 (= V1 2 / (2 × g1)) is calculated based on the speed V1 of the preceding vehicle and the predetermined first deceleration g1. To do.
In step S32, the lighting state of the brake light of the preceding vehicle is determined from the image data of the rear portion of the preceding vehicle based on the image data output from the imaging device of the external sensor 11.

そして、ステップS33においては、制動灯は無点灯か否かを判定する。
この判定結果が「YES」の場合には、ステップS34に進み、このステップS34においては、先行車両から交差車両までの距離dlが第1先行車両接近閾値dl_th1未満であるか否かを判定する。
この判定結果が「NO」の場合には、エンドに進む。
一方、この判定結果が「YES」の場合には、後述するステップS37に進む。
In step S33, it is determined whether or not the brake lamp is not lit.
If this determination result is "YES", the process proceeds to step S34, in which it is determined whether or not the distance dl from the preceding vehicle to the crossing vehicle is less than the first preceding vehicle approach threshold dl_th1.
If this determination is “NO”, the flow proceeds to the end.
On the other hand, if this determination is “YES”, the flow proceeds to step S 37 described later.

そして、ステップS35においては、先行車両の速度V1と、所定の第2減速度g2とに基づき、第2先行車両接近閾値dl_th2(=V1/(2×g2))を算出する。
そして、ステップS36においては、先行車両から交差車両までの距離dlが第2先行車両接近閾値dl_th2未満であるか否かを判定する。
この判定結果が「YES」の場合には、ステップS37に進み、このステップS37においては、先行車両と交差車両との衝突可能性は有ると判定し、エンドに進む。
一方、この判定結果が「NO」の場合には、ステップS38に進み、このステップS38においては、先行車両と交差車両との衝突可能性は無いと判定し、エンドに進む。
In step S35, the second preceding vehicle approach threshold dl_th2 (= V1 2 / (2 × g2)) is calculated based on the speed V1 of the preceding vehicle and the predetermined second deceleration g2.
In step S36, it is determined whether or not the distance dl from the preceding vehicle to the crossing vehicle is less than the second preceding vehicle approach threshold dl_th2.
If this determination is “YES”, the flow proceeds to step S 37, in which it is determined that there is a possibility of collision between the preceding vehicle and the crossing vehicle, and the flow proceeds to the end.
On the other hand, if this determination is “NO”, the flow proceeds to step S 38, in which it is determined that there is no possibility of collision between the preceding vehicle and the crossing vehicle, and the flow proceeds to the end.

上述したように、本実施の形態による車両の走行安全装置10によれば、先行車両が交差車両との衝突により停車する場合であっても、先行車両の車両挙動を予測して、所定の警報または回避制御を実行することができ、自車両と先行車両との衝突可能性を低減することができる。
さらに、交差車両の進路に沿う交差車両の自車両に近接する側の側面位置と先行車両の前端位置とを推定することにより、先行車両と交差車両との衝突可能性の有無の判定精度を向上させることができ、警報または回避制御が過剰に実行されることを防止することができる。
さらに、先行車両の制動灯の点灯状態を先行車両と交差車両との衝突可能性の有無の判定に反映させることができ、先行車両と交差車両との衝突可能性の有無の判定精度を向上させることができ、警報または回避制御が過剰に実行されることを防止することができる。
As described above, according to the vehicle travel safety device 10 according to the present embodiment, even when the preceding vehicle stops due to a collision with an intersecting vehicle, the vehicle behavior of the preceding vehicle is predicted and a predetermined warning is issued. Alternatively, avoidance control can be executed, and the possibility of collision between the host vehicle and the preceding vehicle can be reduced.
In addition, by estimating the position of the side of the intersecting vehicle that is close to the host vehicle along the path of the intersecting vehicle and the front end position of the preceding vehicle, the accuracy of determining whether there is a possibility of collision between the preceding vehicle and the intersecting vehicle is improved. It is possible to prevent the alarm or the avoidance control from being performed excessively.
Furthermore, the lighting state of the brake light of the preceding vehicle can be reflected in the determination of the possibility of collision between the preceding vehicle and the intersecting vehicle, and the determination accuracy of the possibility of collision between the preceding vehicle and the intersecting vehicle is improved. It is possible to prevent the alarm or avoidance control from being performed excessively.

なお、上述した実施の形態において、先行車両の後部の画像データから先行車両が大型車であると検知された場合などのように、自車両と交差点との間の距離が所定値以上に長い場合には、先行車両と交差車両との衝突可能性の有無に応じた衝突回避制御の実行要否の判定処理の実行を停止してもよい。
なお、上述した実施の形態においては、自車両が交差点付近に位置すると判定され、自車両が先行車両に追従して停止状態から発進状態へと移行する場合に、先行車両と交差車両との衝突可能性の有無に応じて衝突回避制御を実行するとしたが、これに限定されず、自車両の発進時以外の走行状態において、先行車両と交差車両との衝突可能性の有無に応じて衝突回避制御を実行してもよい。
In the above-described embodiment, when the distance between the host vehicle and the intersection is longer than a predetermined value, such as when the preceding vehicle is detected as a large vehicle from the rear image data of the preceding vehicle. Alternatively, the execution of the determination process for determining whether or not the collision avoidance control needs to be performed depending on the possibility of collision between the preceding vehicle and the crossing vehicle may be stopped.
In the above-described embodiment, when it is determined that the host vehicle is located near the intersection and the host vehicle follows the preceding vehicle and shifts from the stop state to the start state, the collision between the preceding vehicle and the intersecting vehicle occurs. Although collision avoidance control is executed according to the possibility of collision, the present invention is not limited to this, and collision avoidance depends on the possibility of collision between the preceding vehicle and the intersecting vehicle in a driving state other than when the host vehicle is starting. Control may be performed.

10 車両の走行安全装置
11 外界センサ
12 車両状態センサ
17 報知装置
31 自車進路予測部(自車進路予測手段)
32 交差車両検出部(交差車両検出手段)
33 交差車進路予測部(交差車進路予測手段)
34 側面位置推定部(側面位置推定手段)
35 先行車両検出部(先行車両検出手段)
36 車長推定部(車長推定手段)
37 前端位置推定部(前端位置推定手段)
38 制動灯点灯判定部(制動灯点灯判定手段)
40 衝突可能性判定部(衝突可能性判定手段)
41 車両制御部(制御手段)
DESCRIPTION OF SYMBOLS 10 Vehicle travel safety device 11 External sensor 12 Vehicle state sensor 17 Notification device 31 Own vehicle route prediction unit (own vehicle route prediction means)
32 Crossing vehicle detection unit (crossing vehicle detection means)
33 Crossing vehicle route prediction unit (crossing vehicle route prediction means)
34 Side position estimation unit (side position estimation means)
35 Leading vehicle detection unit (leading vehicle detection means)
36 Vehicle length estimation unit (vehicle length estimation means)
37 Front end position estimation unit (front end position estimation means)
38 Brake light lighting determination unit (braking light lighting determination means)
40 Collision possibility judgment part (collision possibility judgment means)
41 Vehicle control unit (control means)

Claims (3)

自車両の進路を予測する自車進路予測手段と、
前記自車両の走行路に交差する交差路を走行する交差車両を検出する交差車両検出手段と、
前記交差車両検出手段により検出された前記交差車両の進路を予測する交差車進路予測手段と、
前記自車進路予測手段により予測された前記自車両の進路と前記交差車進路予測手段により予測された前記交差車両の進路とに基づいて、自車両と交差車両との衝突可能性の有無を判定する衝突可能性判定手段と、
前記自車両の走行路と前記交差路との交差点において、前記衝突可能性判定手段により前記自車両と前記交差車両との衝突可能性が有ると判定された場合に、所定の警報または回避制御を実行する制御手段とを備える車両の走行安全装置であって、
前記自車両から所定距離以内の進行方向前方に存在する先行車両の位置を検出する先行車検出手段を備え、
前記衝突可能性判定手段は、前記先行車検出手段により前記先行車両の位置が検出された場合に、該先行車両の位置と前記交差車進路予測手段により予測された前記交差車両の進路とに基づいて、前記交差車両と前記先行車両との衝突可能性の有無を判定し、
前記制御手段は、前記衝突可能性判定手段により前記交差車両と前記先行車両との衝突可能性が有ると判定された場合に、前記所定の警報または前記回避制御を実行することを特徴とする車両の走行安全装置。
Own vehicle course prediction means for predicting the course of the own vehicle;
Crossing vehicle detection means for detecting a crossing vehicle that runs on a crossing that crosses the traveling road of the host vehicle;
Crossing vehicle course prediction means for predicting the course of the crossing vehicle detected by the crossing vehicle detection means;
Based on the course of the own vehicle predicted by the own vehicle course prediction means and the course of the intersecting vehicle predicted by the intersecting car course prediction means, the presence / absence of a collision possibility between the own vehicle and the intersecting vehicle is determined. Collision possibility judging means to
When the collision possibility determining means determines that there is a possibility of collision between the own vehicle and the intersecting vehicle at an intersection between the traveling road of the own vehicle and the intersection, a predetermined warning or avoidance control is performed. A vehicle travel safety device comprising a control means for executing the vehicle,
A preceding vehicle detecting means for detecting a position of a preceding vehicle existing ahead in the traveling direction within a predetermined distance from the host vehicle;
When the position of the preceding vehicle is detected by the preceding vehicle detecting means, the collision possibility determining means is based on the position of the preceding vehicle and the course of the intersecting vehicle predicted by the intersecting vehicle course predicting means. Determining whether there is a collision possibility between the crossing vehicle and the preceding vehicle,
The control unit executes the predetermined warning or the avoidance control when the collision possibility determination unit determines that there is a collision possibility between the intersecting vehicle and the preceding vehicle. Travel safety device.
前記交差車進路予測手段により予測された前記交差車両の進路に基づいて、該進路に沿う前記交差車両の前記自車両に近接する側の側面位置を推定する側面位置推定手段と、
前記先行車両の車長を推定する車長推定手段と、
前記先行車検出手段により検出された前記先行車両の位置と前記車長推定手段により推定された前記先行車両の車長とに基づいて、該先行車両の前端位置を推定する前端位置推定手段とを備え、
前記衝突可能性判定手段は、前記側面位置推定手段により推定された前記交差車両の側面位置から前記前端位置推定手段により推定された前記先行車両の前端位置までの距離に基づいて、前記交差車両と前記先行車両との衝突可能性の有無を判定することを特徴とする請求項1に記載の車両の走行安全装置。
Side surface position estimating means for estimating a side surface position of the crossing vehicle along the route on the side close to the host vehicle based on the path of the crossing vehicle predicted by the crossing vehicle route prediction means;
Vehicle length estimation means for estimating the vehicle length of the preceding vehicle;
Front end position estimating means for estimating the front end position of the preceding vehicle based on the position of the preceding vehicle detected by the preceding vehicle detecting means and the vehicle length of the preceding vehicle estimated by the vehicle length estimating means; Prepared,
The collision possibility determination means is configured to determine whether the collision vehicle and the crossing vehicle based on the distance from the side position of the intersecting vehicle estimated by the side position estimation means to the front end position of the preceding vehicle estimated by the front end position estimation means. The travel safety device for a vehicle according to claim 1, wherein presence or absence of a collision possibility with the preceding vehicle is determined.
前記先行車両の制動灯が点灯したか否かを判定する制動灯点灯判定手段を備え、
前記衝突可能性判定手段は、前記側面位置推定手段により推定された前記他車両の側面位置から前記前端位置推定手段により推定された前記先行車両の前端位置までの距離が所定距離以下であって、かつ、前記制動灯点灯判定手段により前記先行車両の制動灯が点灯していないと判定された場合に、前記交差車両と前記先行車両との衝突可能性が有ると判定することを特徴とする請求項1または請求項2に記載の車両の走行安全装置。
A brake light lighting determining means for determining whether or not the brake light of the preceding vehicle has been lit,
The collision possibility determination means has a distance from the side position of the other vehicle estimated by the side position estimation means to the front end position of the preceding vehicle estimated by the front end position estimation means is a predetermined distance or less, In addition, when the brake light lighting determining unit determines that the brake light of the preceding vehicle is not lit, it is determined that there is a possibility of collision between the intersecting vehicle and the preceding vehicle. The vehicle travel safety device according to claim 1 or 2.
JP2009161716A 2009-07-08 2009-07-08 Vehicle travel safety device Pending JP2011018165A (en)

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CN104094331A (en) * 2012-02-03 2014-10-08 雷诺股份公司 Method of determining the positioning of a vehicle in a traffic corridor of a lane, and methods for detecting alignment and risk of collision between two vehicles
JP2015022758A (en) * 2013-07-19 2015-02-02 本田技研工業株式会社 Intelligent forward collision warning system
CN105761549A (en) * 2016-05-05 2016-07-13 东南大学 Method for safety control of highway entrance ramp based on vehicle-vehicle networking
JP2016203883A (en) * 2015-04-27 2016-12-08 本田技研工業株式会社 Vehicular braking device
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Cited By (10)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104094331A (en) * 2012-02-03 2014-10-08 雷诺股份公司 Method of determining the positioning of a vehicle in a traffic corridor of a lane, and methods for detecting alignment and risk of collision between two vehicles
CN104094331B (en) * 2012-02-03 2016-12-28 雷诺股份公司 The method determining vehicle location in road travel road, and for detecting the alignment between two vehicles and the method for risk of collision
CN103106811A (en) * 2013-01-15 2013-05-15 东南大学 Recognition method of motor vehicle valid traffic conflict based on crashing time of two vehicles
JP2015022758A (en) * 2013-07-19 2015-02-02 本田技研工業株式会社 Intelligent forward collision warning system
JP2016203883A (en) * 2015-04-27 2016-12-08 本田技研工業株式会社 Vehicular braking device
US9834186B2 (en) 2015-10-21 2017-12-05 Hyundai Motor Company Autonomous emergency braking apparatus and method
CN105761549A (en) * 2016-05-05 2016-07-13 东南大学 Method for safety control of highway entrance ramp based on vehicle-vehicle networking
CN105761549B (en) * 2016-05-05 2017-11-17 东南大学 A kind of On-Ramp on Freeway method of controlling security based on car car networking
WO2019109685A1 (en) * 2017-12-08 2019-06-13 广州汽车集团股份有限公司 Intersection traversing control method, device, and system
US11348455B2 (en) 2017-12-08 2022-05-31 Guangzhou Automobile Group Co., Ltd. Intersection traffic control method, apparatus and system

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