IPC분류정보
국가/구분 |
United States(US) Patent
등록
|
국제특허분류(IPC7판) |
|
출원번호 |
US-0005961
(2011-01-13)
|
등록번호 |
US-8701408
(2014-04-22)
|
우선권정보 |
DE-10 2010 004 559 (2010-01-14) |
발명자
/ 주소 |
- Dettmann, Tobias
- Neumann, Frank
|
출원인 / 주소 |
- Bosch Mahle Turbo Systems GmbH & Co. KG
|
대리인 / 주소 |
Rader, Fishman & Grauer PLLC
|
인용정보 |
피인용 횟수 :
4 인용 특허 :
14 |
초록
▼
A connecting device, comprising: a linearly driving drive member; an actuating member driven in a rotating manner by an internal combustion engine charging device with at least one pivot arm connected to the actuating member in a fixed manner, wherein the actuating member transmits rotational moment
A connecting device, comprising: a linearly driving drive member; an actuating member driven in a rotating manner by an internal combustion engine charging device with at least one pivot arm connected to the actuating member in a fixed manner, wherein the actuating member transmits rotational moments about a pivot axis, with a slide element connected to the driving member in a fixed manner, and wherein the driving member transmits linear forces oriented obliquely to the pivot axis, with at least one bearing arrangement, which moveably couples the slide element to the pivot arm such that the slide element is displaceably mounted along a displacement axis running parallel to the pivot axis and rotatably mounted about the displacement axis and about a rotary axis running perpendicularly to the displacement axis.
대표청구항
▼
1. A connecting device, comprising: a linearly driving drive member; andan engine charging device actuating member, the actuating member driven in a rotating manner with at least one pivot arm connected to the actuating member in a fixed manner, wherein the actuating member transmits rotational mome
1. A connecting device, comprising: a linearly driving drive member; andan engine charging device actuating member, the actuating member driven in a rotating manner with at least one pivot arm connected to the actuating member in a fixed manner, wherein the actuating member transmits rotational moments about a pivot axis, with a slide element connected to the driving member in a fixed manner, and wherein the drive member transmits linear forces oriented inclined relative to the pivot axis, with at least one bearing arrangement, which moveably couples the slide element to the pivot arm such that the slide element is displaceably mounted along a displacement axis running parallel to the pivot axis and rotatably mounted about the displacement axis and about a rotary axis running perpendicularly to the displacement axis. 2. The connecting device according to claim 1, wherein the bearing arrangement is configured as a journal bearing having at least one of a journal mounting, an inner contour arranged coaxially to the displacement axis, an inner contour arranged coaxially to the rotary axis, formed circular-cylindrically; and an inner contour arranged with circular-cylindrical segments. 3. The connecting device according to claim 2, wherein the journal mounting is at least one of fixedly connected and integrally molded to the pivot arm. 4. The connecting device according to claim 2, wherein the slide element is directly mounted in the journal mounting, and wherein the slide element has at least one of a ball-shaped outer contour and an outer contour formed with ball segments interacting with the inner contour of the journal mounting. 5. The connecting device according to claim 4, wherein the slide element comprises a connecting region, which radially protrudes over the outer contour interacting with the inner contour, which the slide element is connected to the drive member, and wherein the inner contour of the journal mounting radially to the displacement axis comprises at least one interruption, the at least one interruption at least one of the connected region protrudes into and through which the connecting region protrudes. 6. The connecting device according to claim 1, wherein the bearing arrangement comprises a coupling member having a coupling journal mounted in a (first) journal mounting and a further (second) journal mounting in which the slide element is mounted. 7. The connecting device according to claim 6, wherein the coupling journal is displaceably mounted in the first journal mounting along the displacement axis and rotatably mounted about the displacement axis, and wherein the displacement element in the second journal mounting is rotatably mounted about the rotary axis and displaceably mounted along the rotary axis. 8. The connecting device according to claim 7, wherein the second journal mounting radially to the rotary axis comprises at least one interruption through which the slide body is connected to the drive member. 9. The connecting device according to claim 7, wherein at least one of the slide element is configured as a circular-cylindrical journal and wherein the coupling journal and a cylindrical portion of the coupling member containing the second journal mounting are integrally molded. 10. The connecting device according to claim 6, wherein the coupling journal in the first journal mounting is rotatably mounted about the rotary axis and displaceably mounted along the rotary axis, wherein the slide element in the second journal mounting is rotatably mounted about the displacement axis and rotatably mounted along the displacement axis. 11. The connecting device according to claim 10, wherein the coupling element comprises a coupling element, which on the outside forms the coupling journal and on the inside contains the second journal mounting, and wherein a longitudinal center axis of the coupling journal stands perpendicularly on a longitudinal center axis of the second journal mounting. 12. The connecting device according to claim 11, wherein the slide element comprises a slide element journal, which protrudes into the second journal mounting, wherein the first journal mounting radially to the rotary axis comprises at least one interruption through which the slide element journal protrudes into the second journal mounting, and wherein the slide element journal and a connecting portion of the slide element that is connected to the driving member are integrally molded. 13. An exhaust gas turbo charging device, comprising: an adjusting device, the adjusting device actuates at least one component of the charging device, wherein the charging device includes at least one actuating member driven in a rotary manner, with a driving device for actuating the adjusting device having an actuator for the linear driving of a driving member, and wherein the driving member of the driving device is connected to the actuating member of the adjusting device in a jointed manner via at least one connecting device; wherein the at least one actuating member transmits rotational moments about a pivot axis, with a slide element connected to the driving member in a fixed manner, and wherein the drive member transmits linear forces oriented inclined relative to the pivot axis, with at least one bearing arrangement, which moveably couples the slide element to the pivot arm such that the slide element is displaceably mounted along a displacement axis running parallel to the pivot axis and rotatably mounted about the displacement axis and about a rotary axis running perpendicularly to the displacement axis. 14. The exhaust gas turbo charging device according to claim 13, wherein the connecting device is at least one pivot arm fixedly connected to the actuating member, wherein the actuating member transmits rotational moments about a pivot axis, with a slide element connected to the driving member in a fixed manner, and wherein the driving member transmits linear forces oriented inclined relative to the pivot axis, with at least one bearing arrangement, which moveably couples the slide element to the pivot arm such that the slide element is displaceably mounted along a displacement axis running parallel to the pivot axis and rotatably mounted about the displacement axis and about a rotary axis running perpendicularly to the displacement axis. 15. The exhaust gas turbo charging device according to claim 13, wherein the bearing arrangement is configured as a journal bearing having at least one of a journal mounting, an inner contour arranged coaxially to the displacement axis, an inner contour arranged coaxially to the rotary axis, formed circular-cylindrically; and an inner contour arranged with circular-cylindrical segments. 16. The exhaust gas turbo charging device according to claim 15, wherein the journal mounting is at least one of fixedly connected and integrally molded to the pivot. 17. The exhaust gas turbo charging device according to claim 15, wherein the slide element is directly mounted in the journal mounting, and wherein the slide element has at least one of a ball-shaped outer contour and an outer contour formed with ball segments interacting with the inner contour of the journal mounting. 18. The exhaust gas turbo charging device according to claim 17, wherein the slide element comprises a connecting region, which radially protrudes over the outer contour interacting with the inner contour, which the slide element is connected to the drive member, and wherein the inner contour of the journal mounting radially to the displacement axis comprises at least one interruption, the at least one interruption at least one of the connected region protrudes into and through which the connecting region protrudes. 19. The exhaust gas turbo charging device according to claim 13, wherein the bearing arrangement comprises a coupling member having a coupling journal mounted in a (first) journal mounting and a further (second) journal mounting in which the slide element is mounted. 20. The exhaust gas turbo charging device according to claim 19, wherein the coupling journal is displaceably mounted in the first journal mounting along the displacement axis and rotatably mounted about the displacement axis, and wherein the displacement element in the second journal mounting is rotatably mounted about the rotary axis and displaceably mounted along the rotary axis.
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