Patent Grant
10094151
This application is based on and claims priority under 35 U.S.C. ยง 119 to Japanese Patent Application 2014-154591 filed on Jul. 30, 2014, the entire content of which is incorporated herein by reference.
This disclosure generally relates to a door handle device for a vehicle.
An example of a known door handle device being mounted to a vehicle door (hereinafter referred to as a door handle device) is disclosed in JP2005-76367A (hereinafter referred to as Patent reference 1). According to Patent reference 1, the door handle device includes a structure for reducing a hit noise that is generated in response to the return of an inside door handle from a full stroke position (a door-opening position) where the inside handle is pulled to open the door to an initial position. Even when the inside handle pivots to the full stroke position, the hit noise may be reduced without deteriorating an appearance. The structure is configured by a dedicated buffer member that is applied to the inside handle.
According to the door handle device disclosed in Patent reference 1, the impact is generated because a handle-side stopper and a frame-side stopper directly contact with each other when the handle is pulled from an initial position to the full stroke position. In a case where the handle-side stopper and the frame-side stopper are made from a material having a strength and a stiffness in order for the handle not to be separated from a frame member, the impact further increases. As a result, a large hit noise may be generated or an operation feeling of the handle may be degraded. Specifically, in a case where the door handle device is provided with an outside handle including the frame member that is mounted to a metal-made door outer panel and the handle being positioned outside the door outer panel, the impact generated in response to the movement of the outside handle to the full stroke position or to the initial position travels from the outside handle to the metal-made door outer panel via the frame member. Accordingly, the hit noise may be amplified and resounded. Here, such a door handle device is desired to include a structure that prevents the impact from generating in response to the pulling of the outside handle from the initial position to the full stroke position. In addition, in this case, a low-cost, easy-to-use structure without increasing a number of components is desired to be used. However, the door handle device disclosed in Patent reference 1 includes the structure that reduces only the hit noise generated in response to the return of the inside handle from the full stroke position to the initial position. Further, because the door handle device disclosed in Patent reference 1 includes the dedicated buffer member, the structure of the door handle device disclosed in Patent reference 1 cannot be established with the low-cost, easy-to-use structure.
A need thus exists for a door handle device for a vehicle which is not susceptible to the drawback mentioned above.
According to an aspect of this disclosure, a door handle device for a vehicle includes a frame member configured to be mounted to a door outer panel from an inner side of the vehicle, the door outer panel configuring an outer surface of a vehicle door, an outside handle being formed in an elongated shape, the outside handle including a first end and a second end, and a seal member being made from an elastic material. The frame member includes a frame-side stopper. The outside handle includes a handle shaft portion being provided at a portion positioned at the first end, the handle shaft portion serving as a pivot center of the outside handle, the outside handle including an engagement leg portion being provided at a portion positioned at the second end, the engagement leg portion including a handle-side stopper. The handle shaft portion is mounted to the frame member via a first opening portion being formed at the door outer panel. The engagement leg portion is mounted to the frame member via a second opening portion being formed at the door outer panel, the outside handle pivoting about the handle shaft portion between an initial position and a full stroke position, the outside handle being prevented from pivoting in a direction opposite to the initial position by an engagement of the handle-side stopper and the frame-side stopper of the frame member in a case where the outside handle is positioned at the full stroke position. The seal member includes a body portion being configured to be provided at the opening portion of the door outer panel, the body portion sealing the outside handle and the door outer panel, the seal member including an extending portion extending from the body portion to a first region, the first region where the frame-side stopper and the handle-side stopper face with each other. The extending portion includes a first buffer piece. The frame-side stopper receives an impact generated in response to a pivot of the outside handle about the handle shaft portion to the full stroke position via the first buffer piece of the extending portion of the seal member, the first buffer piece being positioned at the first region.
The foregoing and additional features and characteristics of this disclosure will become more apparent from the following detailed description considered with the reference to the accompanying drawings, wherein:
An embodiment of this disclosure will hereunder be explained with reference to the drawings. In the drawings, arrows X1 and X2 show a frontward direction and a rearward direction of a vehicle, respectively. Allows Y1, Y2 show an upward direction and a downward direction of the vehicle, respectively. Arrows Z1, Z2 show an outward direction and an inward direction of the vehicle, respectively. A door handle device 100 for a vehicle that is before being mounted to a vehicle door or after being mounted to the vehicle door may be shown with the aforementioned directions.
As shown in
The frame member 110 is a member that extends laterally along the vehicle frontward-rearward directions X1, X2. The frame member 110 is mounted to the door outer panel 11 of the vehicle door 10 from an inner side of the vehicle. The frame member 10 holds the outside handle 120 by being engaged with the outside handle 120. The frame member 110 corresponds to a frame member of this disclosure. A front end portion of the frame member 110 is provided with a first opening portion 111. A rear end portion of portion of the frame member 110 is provided with a second opening portion 112. Engagement portions of the outside handle 120 for the engagement with the frame member 110 protrude from an outer side of the vehicle to the inner side of the vehicle via a through hole 141 of the first seal member 140, a through hole 151 of the second seal member 150, an opening portion of the door outer panel 11 and the first and second opening portions 111,112 of the frame member 110.
A support opening 113 provided at the first opening portion 111 of the frame member 110 is formed at each of a pair of frame wall portions that are positioned away from each other in the vehicle upward-downward directions Y1, Y2. The support openings 113, 113 are configured as bearings that pivotally support a pair of support shaft portions 131, 131 of the bearing member 130, respectively. In this case, the support openings 113 open outwardly of the vehicle. The support opening 113 includes an opening width that corresponds to a shaft diameter of the support shaft portion 131. Thus, the bearing member 130 is set at a position to prepare for being mounted to the frame member 110 by fitting the support shaft portion 131 of the bearing member 130 into the support openings 113 of the frame member 110 from the outer side of the vehicle (an upper portion in
The outside handle 120 is configured as a grip-type handle portion (also referred to as an outside handle), and similarly to the frame member 110, the outside handle 120 extends in the lateral direction along the vehicle frontward-rearward directions X1, X2 and includes a first end and a second end. An operator holds the outside handle 12 and opens/closes the vehicle door 10. The outside handle 120 serves as an outside handle of this disclosure.
A front end portion (a first end portion) of the outside handle 120 includes an engagement arm 121 that is positioned in the first opening portion 111 of the frame member 110. The engagement arm 121 includes a cylindrical handle shaft portion 122 that extends in the vehicle upward-downward directions Y1, Y2 when mounted to the vehicle and is pivotally mounted to the bearing member 130 about the handle shaft portion 122. That is, the handle shaft portion 122 that is provided at the first end portion of the outside handle 120 serves as a pivot center of the outside handle 120. Thus, in a state where the bearing member 130 is integrally mounted to the frame member 110, the outside handle 120 is pivotable about the handle shaft portion 122 in the vehicle outward and inward directions Z1, Z2 between the initial position and the full stroke position.
A rear end portion (a second end portion) of the outside handle 120 includes an engagement leg portion 123 that is positioned in the second opening portion 112 of the frame member 110. The engagement leg portion 123 has a substantially L-shaped cross section and extends toward the frame member 110. The engagement leg portion 123 is engaged with a lever member 114 (counterweight) that is pivotally supported at the frame member 110. The lever member 114 is connected to a coil spring for pulling the engagement leg portion 123 in the inward direction Z2 of the vehicle. The lever member 114 is connected to a door lock mechanism via a connection rod. Accordingly, in a case where the outside handle 120 pivots about the handle shaft portion 122 from the initial position shown in
As above, the handle shaft portion 122 and the engagement leg portion 123 of the outside handle 120 are mounted to the frame member 110 from the outer side of the door outer panel 11 via the first and second opening portions 111, 112 provided at the outer panel 11. The handle shaft portion 122 and the engagement leg portion 123 serve as a handle shaft portion and an engagement leg portion, respectively, of this disclosure.
The first seal member 140 is a plate-shaped member that is positioned between the front end portion of the outside handle 120 and the door outer panel 11. The second seal member 150 is a plate-shaped member that is positioned between the rear end portion of the outside handle 120 and the door outer panel 11. Each of the first and second seal members 140, 150 is made from an elastic material, for example, a synthetic resin or a rubber. The first and second seal members 140, 150 serve as gap sealing functions, or gap sealing portions that seal gaps formed between the outside handle 120 and the door outer panel 11. Thus, for example, liquid or air is prevented from entering into the inner side of the vehicle relative to the outer panel 11.
When a known outside handle is pulled from the initial position to the full stroke position (a door-opening position) or when the known outside handle returns from the full stroke position to the initial position, a large impact is generated because the outside handle directly comes in contact with a frame member. As a result, a large hit noise may be generated or the operation feeling of the outside handle may be degraded. In order for the outside handle not to be separated from the frame member, the outside handle including a handle-side stopper and the frame member including a frame-side stopper are made from materials that have high strength and stiffness, that is, the known outside handle including the handle-side stopper and the frame member including the frame-side stopper are typically made from a hard resin material. Thus, the generation of the hit noise or the degradation of the operation feeling may occur significantly. Further, because an impact generated in response to the movement of the outside handle to the full stroke position or to the initial position is delivered from the outside handle to a metal-made door outer panel via the frame member, the hit noise may be amplified and echoed or resounded.
However, according to the embodiment of this disclosure, in addition to the gap sealing function, or the gap sealing portion, the second seal member 150 of the embodiment includes an impact-softening function (also referred to as a shock absorption function that absorbs the impact) that softens the impact generated in response to the movement of the outside handle 120 to the full stroke position or to the initial position. The second seal member 150 serves as a seal member of this disclosure. For this purpose, as shown in
The buffer piece 152 is connectively provided with an opening rim of a front end of the body portion 150a. The buffer piece 152 includes an engagement surface 152a that protrudes in the vehicle outward direction Z1 relative to an outer surface 150b of the body portion 150a. When the outside handle 120 returns from the full stroke position to the initial position, the buffer piece 152 intervened between the frame member 110 and the outside handle 120 serves as a function that softens or absorbs the impact generated at the engagement surface 152a.
As shown in
The first buffer piece 154 protrudes in the vehicle inward direction Z2 relative to an inner surface 150c of the body portion 150a to be positioned at the first region 110a. A protruding end portion of the first buffer piece 154 includes a first engagement surface 154a. The second buffer piece 155 protrudes in the vehicle outward direction Z1 relative to an outer surface 150b of the body portion 150a to be positioned at a second region 110b that is positioned opposite to the first buffer piece 154. The first buffer piece 154 and the second buffer piece 155 sandwich the frame-side stopper 115 therebetween. A protruding end portion of the second buffer piece 155 includes a second engagement surface 155a. In this case, when the outside handle 120 is pulled from the initial position to the full stroke position, the first buffer piece 154 is intervened between the frame-side stopper 115 of the frame member 110 and the handle-side stopper 124 of the outside handle 120 to soften or absorb the impact generated at the first engagement surface 154a. On the other hand, when the outside handle 120 returns from the full stroke position to the initial position, the second buffer piece 155 is intervened between the frame-side stopper 115 of the frame member 110 and the outside handle 120 to soften or absorb the impact generated at the second engagement surface 155a.
Meanwhile, each of the engagement surface 152a of the buffer piece 152, the first engagement surface 154a of the first buffer piece 154, and the engagement portion 155a of the second buffer piece 155 may favorably include a protrusion-recess structure that plural pairs of protrusions and recesses are disposed continuously in a predetermined direction (for example, in the vehicle frontward-rearward directions X1, X2). According to the protrusion-recess structure, the volume and the weight of the extending portion 153 may be reduced while maintaining the thickness of the buffer piece to secure a desired impact-softening performance.
The impact generated by the contact of the outside handle 120 to the frame member 110 in response to the movement of the outside handle 120 to the full stroke position or to the initial position is generally larger when the outside handle 120 returns to the initial position than when the outside handle 120 is pulled to the full stroke position. According to the extending portion 153 of the embodiment, the second buffer piece 155 is favorably larger than the first buffer piece 154. The gross area of the second engagement surface 155a coming in contact with the outside handle 120 is favorably larger than the gross area of the first engagement surface 154a coming in contact with the outside handle 120. The second buffer piece 155 of the extending portion 153 favorably includes a hollow portion 155b for softening the impact (for enhancing cushioning properties against the impact) generated in response to the return of the outside handle 120 to the initial position. Thus, a large impact generated in response to the return of the outside handle 120 to the initial position may be effectively softened.
The second seal member 150 is provided with plural engagement portions for being mounted to the frame member 110. As shown in
Meanwhile, the frame-side stopper 115 of the frame member 110 includes an engagement structure that engages the frame-side stopper 115 with the extending portion 153 for positioning the frame member 110 to the second seal member 150. As shown in
According to the engagement structure, a first engagement wall 116a of the first engagement protrusion 116 and a second engagement wall 117a of the second engagement protrusion 117 are positioned opposite to the first buffer piece 154 in a state where the frame-side stopper 115 is engaged with the extending portion 153 (in a state where the connection piece 156 is fitted in the engagement groove 119). In this engagement state, a third engagement wall 116b of the first engagement protrusion 116 and a fourth engagement wall 117b of the second engagement protrusion 117 are positioned to face the second buffer piece 155. The first engagement protrusion 116 includes a fifth engagement wall 116c that extends from the first engagement wall 116a to the third engagement wall 116b. The second engagement protrusion 117 includes a sixth engagement wall 117c that extends from the second engagement wall 117a to the fourth engagement wall 117b. The engagement groove 119 is defined by the fifth and sixth engagement walls 116c, 117c.
The groove width of the engagement groove 119 in the vehicle frontward-rearward directions X1, X2 substantially matches the thickness of the connection piece 156 in the vehicle frontward-rearward directions X1, X2. The groove length of the engagement groove 119 in the vehicle outward-inward directions Z1, Z2 (the distance between the first engagement wall 116a and the third engagement wall 116b or the distance between the second engagement wall 117a and the fourth engagement wall 117b) substantially matches the length of the connection piece 156 in the vehicle outward-inward direction Z1, Z2. Accordingly, the extending portion 153 is securely engaged with the frame-side stopper 115. Further, because only the connection piece 156 is used for connecting the first buffer piece 154 to second buffer piece 155, a space desired for the connection of the buffer pieces may be small. Alternatively, the first and second buffer pieces 154, 155 may be connected with each other via plural connecting pieces if required.
According to the engagement structure, the first and third engagement walls 116a, 117a are in contact with the first buffer piece 154 and are against the load applied to the extending portion 153 in the vehicle outward direction Z1. The second and fourth engagement walls 116b, 117b are in contact with the second buffer piece 155 and are against the load applied to the extending portion 153 in the vehicle inward direction Z2. The fifth and sixth engagement walls 116c, 117c are in contact with the connection piece 156 and are against the load applied to the extending portion 153 in the vehicle frontward-rearward directions X1, X2. That is, in a state where the connection piece 156 of the extending portion 153 is engaged with the engagement groove 119, the extending portion 153 can be prevented from being released from the engagement groove 119 because the first and second engagement protrusions 116, 117 prevent the extending portion 153 from moving in the vehicle frontward-rearward directions X1, X2 (the extending directions of the first and second buffer pieces 154, 155) and in the vehicle outward-inward directions Z1, Z2 (the extending directions of the connection piece 156).
According to the frame-side stopper 115 being configured by the first and second engagement protrusions 116, 117 that are spaced apart from each other while having the engagement groove 119 therebetween, the frame-side stopper 115 favorably maintains a desired strength or stiffness without increasing the length of the frame-side stopper 115 in the vehicle frontward-rearward directions X1, X2 and in the vehicle outward-inward directions Z1, Z2. Thus, according to the frame-side stopper 115 of the embodiment, the second engagement protrusion 117 of the first and second engagement protrusions 116, 117, the second engagement protrusion 117 that is positioned at the rear of the vehicle relative to the first engagement protrusion 116, is provided with a reinforcement rib 118. The reinforcement rib 118 extends from a portion (engagement wall 117a) that receives the impact generated in response to the pivot of the outside handle 120 about the handle shaft portion 122 to the full stroke position in the inward direction Z2 of the vehicle along a direction of action of the impact. The reinforcement rib 118 serves as a reinforcement rib of this disclosure. According to the reinforcement rib 118, the door handle device 100 is prevented from upsizing because the frame-side stopper 115 that is configured by the first and second engagement protrusions 116, 117 does not have to upsize for securing a desired strength or stiffness.
The reinforcement rib 118 of the second engagement protrusion 117 is favorably provided with a load sustaining surface 118a. When the load is applied to the outside handle 120 in the vehicle rearward direction X2 along the extending direction of the outside handle 120, the load sustaining surface 118a comes in contact with the engagement leg portion 123 being biased in the vehicle rearward direction X2 and receives a load applied from the engagement leg portion 123. The load sustaining surface 118a serves as a load sustaining surface of this disclosure. The action of the load relative to the outside handle 120 is generated in response to the normal opening and normal closing of a door by an operator who holds the outside handle 120. Thus, the reinforcement rib 118 prevents the outside handle 120 from moving in the direction of the load.
According to the aforementioned embodiment, following effects and advantages of the extending portion 153 may be attained. As shown in
In this case, the elastic first buffer pieces 154, 154 are positioned between the set of the handle-side stoppers 124, 124 (elements positioned at the outside handle 120) that are made from a hard synthetic resin material and a set of the frame-side stoppers 115, 115 (elements positioned at the frame member 110) that are made from a hard synthetic resin material. Accordingly, the set of the frame-side stoppers 115, 115 receive the impact via the first buffer pieces 154, 154 of the second seal member 150, the impact generated in response to the pulling of the outside door handle 120 to the full stroke position. As a result, the impact is softened by the elastic first buffer pieces 154, 154. Thus, the generation of the large hit noise or the degradation of the operation feeling of the outside handle 120 may be prevented. In particular, the hit noise is prevented from being amplified and echoed or resounded, the hit noise generated because the impact is delivered from the outside handle 120 to the metal-made door outer panel 11 via the frame member 110.
Similarly to a case where the outside handle 120 is pulled to the full stroke position, in a case where the outside handle 120 returns from the full stroke position to the initial position, the elastic second buffer pieces 155, 155 are positioned between the outside handle 120 and the set of the frame-side stoppers 115, 115. Similarly to the first and second buffer pieces 154, 155, the elastic buffer piece 152 is positioned between the outside handle 120 and the set of the frame-side stopper 115, 115. Accordingly, the set of the frame-side stoppers 115, 115 receive the impact generated in response to the return of the outside handle 120 to the initial position via the three buffer pieces of the seal member 150, the three buffer pieces that are the buffer piece 152 and the second buffer pieces 155, 155. As a result, similarly to a case where the outside handle 120 is pulled to the full stroke position, the impact is softened by the elastic buffer piece 152 and the pair of the elastic extending portions 153, 153. That is, when the outside handle 120 is pulled to the full stroke position, the impact is softened by the buffer piece 152 and the first buffer pieces 154, 154. When the outside handle 120 returns from the full stroke position to the initial position, the impact is softened by the buffer piece 152 and the second buffer pieces 155, 155. Thus, the generation of the large hit sound and the degradation of the operation feeling of the outside handle 120 may be prevented. In particular, because the impact received from the outside handle 120 in response to the return of the outside handle 120 from the full stroke position to the initial position is received by three points that are the buffer piece 152 and the second buffer pieces 155, 155, the impact softening effect is enhanced.
According to the aforementioned door handle device 100, the first and second buffer pieces 154, 155 have the impact-softening function with the use of a part of the second seal member 150 having a sealing function, or a sealing portion. Accordingly, the impact softening structure may be provided without increasing the number of components. In this case, the impact generated in response to the return of the outside handle 120 to the initial position may be softened by the second buffer pieces 155, 155 while softening the impact generated in response to the pulling of the outside handle 120 to the full stroke position by the elastic first buffer pieces 154, 154. The extending portion 153 of the second seal member 150 is reasonably provided with the buffer pieces 154, 155 that soften the impact in accordance with the stroke movement of the outside handle 120 in two directions, that are, the directions to the initial position and to the full stroke position.
According to another example of the extending portion 153 of the aforementioned seal member 150, an extending portion 253 having a shape shown in
According to the engagement structure, a first engagement wall 115a and a second engagement wall 115b of the frame-side stopper 115 are positioned to face the first buffer piece 254 and the second buffer piece 255, respectively. A third engagement wall 115c and a fourth engagement wall 115d of the frame-side stopper 115 are positioned to face the connecting pieces 256, 256, respectively. The first engagement wall 115a is in contact with the first buffer piece 254 and is against the load applied to the extending portion 253 in the vehicle outward direction Z1. The second engagement wall 115b is in contact with the second buffer piece 255 and is against the load applied to the extending portion 253 in the vehicle inward direction Z2. The third and fourth engagement walls 115c, 115d are in contact with the connection pieces 256, 256, respectively, and are against the load applied to the extending portion 253 in the vehicle frontward-rearward directions X1, X2. Accordingly, the extending portion 253 is prevented from being released from the frame-side stopper 115 easily.
Similarly to the extending portion 153, in a case where the aforementioned extending portion 253 is used, the impact generated in response to the return of the outside handle 120 to the initial direction is softened by the elastic second buffer piece 255 while the impact generated in response to the pulling of the outside handle 120 to the full stroke position is softened by the elastic first buffer piece 254.
This disclosure is not limited to the aforementioned typical embodiment and is susceptible to various applications and modifications. For example, following examples of the embodiment are applicable.
According to the second seal member 150 of the aforementioned embodiment, the extending portion 153, 253 is provided with the first buffer piece 154, 254 for softening the impact generated in response to the pulling of the outside handle 120 to the full stroke position and the second buffer piece 155, 255 for softening the impact generated in response to the return of the outside handle 120 to the initial position. Alternatively, a part of the second seal member 150 may be used to establish the structure that at least softens the impact generated in response to the pulling of the outside handle 120 to the full stroke position. Accordingly, the extending portion 153, 253 may not include the second buffer piece 155, 255 or may exclude the impact-softening function of the second buffer piece 155, 255. The second seal member 150 may not include the buffer piece 152 or may exclude the impact-softening function of the buffer piece 152.
According to the frame member 110 of the aforementioned embodiment, one of the first and second engagement protrusions 116, 117 is provided with the reinforcement rib 118. Alternatively, at least one of the first and second engagement protrusions 116, 117 may be provided with a member that corresponds to the reinforcement rib 118. In this case, the load sustaining surface 118a of the reinforcement rib 118 may be separated from the reinforcement rib 118 and any member other than the reinforcement rib 118 may be used for the load sustaining function.
According to the aforementioned embodiment, the elongated outside handle 120 includes the handle shaft portion 122 that is positioned at the front end of the outside handle 120 and includes the engagement leg portion 123 that is positioned at the rear end of the outside handle 120. Alternatively, the outside handle 120 may include an element that corresponds to the engagement leg portion 123 being positioned at the front end of the outside handle 120 and may include an element that corresponds to the handle shaft portion 122 being positioned at the rear end of the outside handle 120. In this case, a seal member that includes the impact-softening function as the second seal member 150 may be applied to the engagement leg portion 123 provided at the front of the outside handle 120.
According to this disclosure, an essential structure of the door handle device 100 may be applied to any types of vehicle doors. For example, right and left doors for front seats of a vehicle, right and left doors for rear seats of the vehicle, or a rear door (a backdoor) of the vehicle may be applied with the essential structure of the door handle device 100.
According to the aforementioned embodiment, the door handle device (100) for the vehicle includes a frame member (110) configured to be mounted to the door outer panel (11) from the inner side of the vehicle, the door outer panel (11) configuring an outer surface of the vehicle door (10), the outside handle (120) being formed in an elongated shape, the outside handle (120) including the first end and the second end, and the seal member (140, 150) being made from an elastic material. The frame member (110) includes a frame-side stopper (115). The outside handle (120) includes the handle shaft portion (122) being provided at a portion positioned at the first end, the handle shaft portion (122) serving as a pivot center of the outside handle (120), the outside handle (120) including the engagement leg portion (123) being provided at a portion positioned at the second end, the engagement leg portion (123) including the handle-side stopper (124). The handle shaft portion (122) is mounted to the frame member (110) via the first opening portion (111) being formed at the door outer panel (11). The engagement leg portion (123) is mounted to the frame member (110) via the second opening portion (112) being formed at the door outer panel (11). The outside handle (120) pivots about the handle shaft portion (122) between the initial position and the full stroke position. The outside handle (120) is prevented from pivoting in a direction opposite to the initial position by the engagement of the handle-side stopper (124) and the frame-side stopper (115) of the frame member (110) in a case where the outside handle (120) is positioned at the full stroke position. The seal member (150) includes the body portion (150a) being configured to be provided at the opening portion (112) of the door outer panel (11), the body portion (150a) sealing the outside handle (120) and the door outer panel (11), the seal member (150) including an extending portion (153, 253) extending from the body portion (150a) to a first region (110a), the first region (110a) where the frame-side stopper (115) and the handle-side stopper (124) face with each other. The extending portion (153, 253) includes a first buffer piece (154, 254). The frame-side stopper (115) receives an impact generated in response to the pivot of the outside handle (120) about the handle shaft portion (122) to the full stroke position via the first buffer piece (154, 254) of the extending portion (153, 253) of the seal member (150), the first buffer piece (154, 254) being positioned at the first region (110a).
According to the aforementioned construction, the impact generated in response to the pulling of the outside handle 120 to the full stroke position may be softened by the elastic first buffer piece 154, 254. As a result, the generation of the large hit noise or the degradation of the operation feeling of the outside handle 120 may be prevented. In particular, the hit sound is prevented from being amplified and being echoed or resounded due to the travel of the impact from the outside handle 120 to the metal-made door outer panel 11 via the frame member 110. Further, the first buffer piece 154, 254 includes the impact-softening function by the use of a part of the second seal member 150 that includes the sealing function, or the sealing portion. Thus, the impact softening structure is established without increasing the number of components.
According to the aforementioned embodiment, the extending portion (153, 253) of the seal member (150) includes the second buffer piece (155, 255) being positioned at the second region (110b), the second region (110b) being positioned opposite to the first buffer piece (154, 254), while the first buffer piece (154, 254) and the second buffer piece (155, 255) sandwich the frame-side stopper (115) therebetween, the extending portion (153, 253) including at least one connection piece (156, 256) connecting the first buffer piece (154, 254) to the second buffer piece (155, 255). The frame-side stopper (115) receives an impact generated in response to the pivot of the outside handle (120) about the handle shaft portion (122) to the initial position of the outside handle (120) via the second buffer piece (154, 254) of the extending portion (153, 253) of the seal member (150).
According to the aforementioned construction, the elastic second buffer piece 155, 255 softens the impact generated in response to the return of the outside handle 120 to the initial position while the elastic first buffer piece 154, 254 softens the impact generated in response to the pulling of the outside handle 120 to the full stroke position. In this case, the extending portion 153, 253 of the second seal member 150 is reasonably provided with two buffer pieces (the first buffer piece 154, 254 and the second buffer piece 155, 255) that soften the impact in accordance with the stroke movement in two directions, that are, the directions to the initial position and to the full stroke position.
According to the aforementioned embodiment, the frame-side stopper (115) of the frame member (110) includes the engagement structure engaging the frame-side stopper (115) to the extending portion (153, 253) of the seal member (150).
According to the aforementioned engagement structure, the second seal member 150 may be easily positioned at the position relative to the frame member 110. In this case, because the second seal member 150 is positioned relative to the frame member 110 that is integrally mounted with the outside handle 120, the relative positions of the frame member 110, the outside handle 120 and the second seal member 150 may be defined accurately.
According to the aforementioned construction, the extending portion (153) of the seal member (150) includes the first buffer piece (154) and the second buffer piece (155) extending in parallel with each other along the extending direction of the outside handle (120), the first buffer piece (154) and the second buffer piece (155) being connected with each other with the connection piece (156). The engagement structure is configured by two engagement protrusions (116, 117) of the frame-side stopper (115), the engagement protrusions (116, 117) being spaced apart from each other while having the engagement groove (119) therebetween, the engagement groove (19) being engaged with the connection piece (156), the engagement protrusions (116, 117) being sandwiched by the first buffer piece (154) and the second buffer piece (155).
In this case, in a case where the connection piece 156 of the extending portion 153 is engaged with the engagement groove 119, the extending portion 153 can be prevented from being released from the engagement groove 119 because the first and second engagement protrusions 116, 117 prevent the extending portion 153 from moving in the vehicle frontward-rearward directions X1, X2 (the extending directions of the first and second buffer pieces 154, 155) and in the vehicle outward-inward directions Z1, Z2 (the extending directions of the connection piece 156).
According to the aforementioned embodiment, at least one of the engagement protrusions (116, 117) includes the reinforcement rib (118), the reinforcement rib (118) extending from a portion receiving the impact generated in response to the pivot of the outside handle (120) about the handle shaft portion (122) to the full stroke position, the reinforcement rib (118) extending from the portion along the direction of action of the impact.
According to the reinforcement rib 118, the door handle device 100 is prevented from upsizing because the frame-side stopper 115 that is configured by the first and second engagement protrusions 116, 117 does not have to upsize for securing a desired strength or stiffness.
According to the aforementioned embodiment, the reinforcement rib (118) includes the load sustaining surface (118a), the load sustaining surface (118a) coming in contact with the engagement leg portion (123) in response to the application of a load in a predetermined direction to the outside handle (120) along the extending direction of the outside handle (120), the engagement leg portion (123) being biased in the predetermined direction, the load sustaining surface (118a) receiving the load applied from the engagement leg portion (123).
Thus, the reinforcement rib 118 prevents the outside handle 120 from moving in the direction of action of the load.
According to the door handle device 100, the impact generated in response to the pulling of the outside door handle 120 from the initial position to the full stroke position may be prevented without increasing the number of components.
The principles, preferred embodiment and mode of operation of the present invention have been described in the foregoing specification. However, the invention which is intended to be protected is not to be construed as limited to the particular embodiments disclosed. Further, the embodiments described herein are to be regarded as illustrative rather than restrictive. Variations and changes may be made by others, and equivalents employed, without departing from the spirit of the present invention. Accordingly, it is expressly intended that all such variations, changes and equivalents which fall within the spirit and scope of the present invention as defined in the claims, be embraced thereby.
| Number | Date | Country | Kind |
|---|---|---|---|
| 2014-154591 | Jul 2014 | JP | national |
| Number | Name | Date | Kind |
|---|---|---|---|
| 2029711 | Frantz | Feb 1936 | A |
| 3153553 | Sandor | Oct 1964 | A |
| 4482179 | Johnson | Nov 1984 | A |
| 5862570 | Lezuch | Jan 1999 | A |
| 6234041 | Larabet | May 2001 | B1 |
| 6363577 | Spitzley | Apr 2002 | B1 |
| 7677614 | Monig | Mar 2010 | B2 |
| 7866714 | Monig | Jan 2011 | B2 |
| 8328250 | Botten | Dec 2012 | B2 |
| 8991880 | Yokoyama | Mar 2015 | B2 |
| 9404293 | Kudoh | Aug 2016 | B2 |
| 20020089194 | Nomura | Jul 2002 | A1 |
| 20040217602 | Nomura et al. | Nov 2004 | A1 |
| 20070182107 | Wesson et al. | Aug 2007 | A1 |
| 20140049058 | Kudoh et al. | Feb 2014 | A1 |
| Number | Date | Country |
|---|---|---|
| 4125184 | Feb 1993 | DE |
| 1099816 | May 2001 | EP |
| 2 700 772 | Feb 2014 | EP |
| 2004-92250 | Mar 2004 | JP |
| 2005-76367 | Mar 2005 | JP |
| 2007032257 | Feb 2007 | JP |
| 2008-248496 | Oct 2008 | JP |
| 2012-225116 | Nov 2012 | JP |
| Entry |
|---|
| Extended European Search Report dated Dec. 8, 2015 in Patent Application 15178957.5. |
| Office Action dated Mar. 20, 2018 in Japanese Patent Application No. 2014-154591 (with English language translation), 7 pages. |
| Number | Date | Country | |
|---|---|---|---|
| 20160032628 A1 | Feb 2016 | US |
