ACTUATING LEVER

Abstract: Lever with a knob (1) and an elongated part (2). In one of its ends the elongated part (2) carries the knob and is at a distance from the end connected to a mechanism that is to be operated. The knob includes an electrical switch (14, 12). The knob (1) is movable radially relative to the longitudinal axis (3) of the lever part and has a cavity (4) into which the lever part (2) protrudes with one of its ends (10). The cavity (4) has a peripheral surface (11) which defines a space to the surface (12) of said end of the lever part. In the space there is located an elastically, ring-shaped centering element (13) which at its outer periphery abuts against said peripheral surface of the space and at its inner periphery abuts against the surface (12) of the lever part and a ring-shaped, electrical contact element (14) being part of the switch which is immovably connected to the knob and adapted to follow this in its radial movements. The centering element (13) strives at centering the contact element relative to the end part (10) of the lever part. In a neutral position for the knob the movable contact element defines a space to the end part of the lever part (the end part is included as a second contact element in the switch). By a manual sidewards movement of the knob relative to the lever part the ring-shaped contact element will be moved into an eccentric position and into contact with the second contact element.

Description: Title: ACTUATING LEVER Technical area: The present invention relates to a control lever having a knob and an elongated lever part which at its one end carries the knob and at some distance from said end is connected to a mechanism that is to be operated, the knob having an electrical switch. Prior art: The present invention relates to that type of control levers that have a knob in which an electrical switch has been arranged, which can be actuated manually for changing between different positions of the switch. It is earlier known to arrange electrical switches in levers, for example a pushing switch which is attainable with the hand for switching in for instance an overdrive gear at a lever. For the operation of airplanes it is further known to arrange different types of switches in joy sticks. Technical problem: The object of the present invention is to obtain a lever by which a change of the electric switch is obtained automatically as early as possible during an operation and thereby obtain maximal precision in the contact function during mass production. The solution: The above object is obtained by means of a lever accord¬ ing to the invention which is characterized in that the knob is somewhat movable in different directions radial¬ ly relative to the shaft of the lever and includes a cavity into which the lever part protrudes with one of its end parts and that said cavity has a peripheral surface which defines a distance to the surface of said end part of the lever, that in said space an elastic, ring-shaped centering element iε located which by means of one of its peripheries abuts against said peripheral surface of the space and with its second periphery abuts against said end part of the lever, and at least one ring-shaped movable, electrical contact element included in the switch which is connected to the knob and adapted to follow it in its radial movements, that said centering element strives at centering said contact element relative to said end part of the lever so that in a neutral position of the knob the movable contact element has a distance to said end part of the lever, which end part forms one contact element rigidly fastened in the knob, said contact element being part of the switch and that by a manual transverse movement of the knob relative to the lever in some of said different directions, the ring-shaped contact element is moved radially to one or more different contact positions in contact with the second contact element. Description of the figures: The invention shall be explained in detail below in connection with some embodiment examples with reference to the attached drawings, in which Fig. 1 is a central, axial section through the lever according to the invention in a first embodiment example along the line I-I in Fig. 4, Fig. 2 is a radial section through the device along the line II-II in Fig. 1, Fig. 3 is a central, axial section through the device along the line III-III in Fig. 4, Fig. 4 is a radial section through the device along the line IV-IV in Fig. 1 , Fig. 5 is a section, corresponding to the one in Fig. 2 but with the device in an activated position, Fig. 6 is a section, corresponding to the section in Fig. 1 through the lever in a second embodi¬ ment example, Fig. 7 is a section along the line VII-VII in Fig. 6, Fig. 8 is a section, corresponding to the section in Fig. 6 through the lever in a third embodiment example, and Fig. 9 is a section along the line IX-IX in Fig. 8. Preferred embodiments: The lever according to the invention is intended to bring about a mechanical change of a mechanism as well as an electric activation of a means which either is a part of said mechanism or is completely separated from this in one and the same movement of the lever. The lever in the examples shown is particularly suitable to be used as a lever for changing between different gear positions by manual operation. The lever consists, as appears from Fig. 1, substantially of a knob 1 and a substantially elongated lever part 2, of which only the upper part is shown in the drawings. The lever part 2 carries at its upper end the knob 1 and is at its lower end coupled to the mechanism that is to be operated or transfer the operation movement, which is a swinging movement. The movement of the knob will then substantially occur to the sides, that means transerversally to the length axis 3 of the lever part. The lever part 2 consists of a cylindri- cally shaped pipe which is inserted in a cavity 4 in the knob 1, having its opening turned downwardly. A bushing 5 is mounted on the lever part. It has been made from an electrically isolating material, for example relatively shape-stable plastics. The bushing has through-going holes, with an inwardly turned cylindrical surface 6, which with good fit is connected to a corresponding outwardly turned cylindrical surface 7 of a part of the lever part 2 so that the bushing is rigidly connected to this one. This part 7 ends via a step 8 to the below located surface of the lever, which has a greater diameter. Hereby, a stop for the bushing 5 is obtained which consequently can not be pushed further downwardly. The bushing is so located that above the bushing an end part 10 of the lever protrudes, which in the example shown has a further reduced diameter in relation to the part 7 of the surface of the lever part. The end part 10 protrudes into an inner cylinder-shaped part of said cavity 4 in the knob 1, having an inward, cylindrical surface 11 which makes a ring-shaped cavity to the outwardly turned surface 12 on the end part 10. In said space an elastically centering element 13 of a highly elastic material, such as silicon in the shape of an O- ring, has been pushed in, which, by means of its inner periphery, abuts against the surface 12 of the end part 10 of the lever part and, by means of its outer peri¬ phery, abuts against the cylindrical surface 11 in the knob 1. In the space in the knob, and more particularly in the same cylindrical part as in which the centering ring is located, a ring-shaped electrical contact element 14 has been arranged. It is made from an electrically conducting material, such as metal. This contact element 14 is a part of an electrical switch in the lever, i.e. in the knob l, where the ring-shaped contact element 14 represents a movable contact element whereas the end part 10, that is its cylindrical surface 12, forms the second stationary contact element of the switch in which the lever part 2 as a whole forms the connecting lead to the stationary contact element through the fact that the lever is electrically conducting or at least made with an electrically conducting layer. A connecting lead through a closed circuit through the switch can hereby be connected anywhere and most suitably below the knob 1. A suitably isolated connecting lead 15 is shown in Fig. 1 and is by one of its ends connected to the movable contact element 14 and by means of its second end to an electrical circuit for an electrically operating function. As an example of such a function electrical operation of a clutch can be mentioned, whereby manual clutching on a motor vehicle can be eliminated while still maintaining a traditional manual gear box. The movable contact element 14 is particularly attached by its outer periphery 16 through the inwardly turned surface 11 and has consequently the same diameter as this one so that it can be rigidly secured to the knob 1 with a good fit. In the first example of the lever shown in Figures 1-5, the movable contact element 14 consists of one single uninterrupted electrically leading ring with the shape of a simple washer. The inner periphery 17 of the ring- shaped contact element 14 which, as its outer periphery, is cylinder-shaped or at least has a circular contour line, has on the contrary a clearly greater diameter than the diameter of the surface of the end part 10 of the lever part, see Fig. 2. In the neutral position for the knob 1 shown in Figures 1 and 2, compared to the lever and thereby a neutral position of the switch, the movable contact element 14 is coaxial with the stationary contact element 10, that is the end part of the lever part 2. In the neutral position there will thereby exist a, around the end part positioned, ring-shaped contact space 18 which, in the first embodiment example has the same width along the whole distance, that is, is rotation symmetrical. The switch iε then, consequently, open. The contact space 18 shall be sufficiently large to prevent contact in this neutral position and large enough so that vibrations in the lever shall not either lead to uninten¬ tional contact between the contact parts in the switch but shall nevertheless be as small as posεible to bring about a quick and early contact function at operation movements, which will be better understood below. The knob 1 is well centered in its neutral position and guided in relation to the lever part 2 but nevertheless somewhat movable to the sides, that means transversally to the length axis 3 of the lever part, and accordingly substantially radially through the connection of the lever with the lever part 2 via the centering element 13 and the bushing 5. Further, the knob includes a central shaft 19 with a hinge ball 20 at its lower end. The shaft and the hinge ball is inserted in the cylindrical, elongated space 21 in the lever part 2. The hinge ball 20 has such a diameter and such a fit in the cylindrical space 21 that the hinge ball 20 allows a small swinging movement of the shaft 19 having the hinge ball 20 as a lead centre. This ball has a somewhat resiεtant influence on the knob 1 through friction againεt the inwardly turned wall of the lever part in the space 21. The shaft has at its upper end a somewhat enlarged part 22, with a surface 23 which maintains a ring-shaped space 24, the radial distance of which somewhat supersedes the radial distance of the contact space 18. Further the inwardly turned surface 11 of the knob, a distance below the movable contact element, continues in a downwardly turned somewhat oblique step 25, which has such an angle that it coincides substantially with the direction of a circle arc having the hinge ball 20 as a centre. A corresponding upwardly turned step-like supporting surface has been made in the bushing 5 and these two step surfaces 25,26 form sliding and supporting surfaces so that the knob 1 here gets a stop against the bushing 5 and is allowed to make this desired small radial movement to the sides of the knob. Hereby a space 27 between the upwardly turned end surface of the lever part and the downwardly turned end surface of the space in the knob can be maintained so that the friction at the movement of the knob relative to the lever part is kept small in spite of the load exerted by the hand of the operating person on the knob 1. From the Figures 3 and 4 it appears that the special shape of the bushing partly to constitute a snap by means of two snapping organs 28 to maintain axially the knob 1 against being lifting off from the lever part 2 and partly by means of a recess 29 to form a turning locker for the knob 1 so that it can not freely be turned around the lever part 2. Without disturbing the prime functions of the knob, some turning can be allowed per se, but a better operating feeling is obtained by experience if the knob is locked against turning. Further, the knob can on its upper surface have symbols, for instance gear positions, which should be used for a predetermined angular position. The snapping organs 28 are elastically deflectable radially inwardly which makes it possible to have a simple mounting of the knob 1 by simply putting it on the end part 10 of the lever part 2. The snapping organs 28 will then, through cooperation with the inward¬ ly protruding hook-formed parts 30 of the knob, be pushed aside and will go back elastically to, by cooperation between stops 31 on the hook-shaped parts, prevent lifting off of the knob 1. The turn-locking is obtained through making the knob 1 with a radially inwardly protruding organ 32, which have stopping surfaces 33, which are so located that they ensure practically turn- locking by cooperation with corresponding surfaces in the recesses 29. Radial movements, however, of the knob is allowed with low friction. A further operating possibility existε with the embodi- ment shown in the figures, namely by means of an axially movable sleeve 34, which iε adapted to be displaced having the lever part 2 as a guide by gripping it between two of the fingers and having it lifted in an upper end position when operating the lever part with knob 1. This sleeve 34 is usually used to release a barrier againεt unintentional introduction of a reverse gear. The εleeve 34 iε normally held in a lower end position, as shown in Fig. 1, by means of a spring not shown. The lower end position is made by a notch 35 in the sleeve, which is brought to abut against a stopping surface 36 in a groove 37 in the sleeve 34. It is, however, posεible that by the upward displacement of the sleeve to bring about the radial displacement of the knob 1 to change the switch in the knob to a closed position. This is obtained by the oblique guiding surface 3 of the sleeve, which by co¬ operation with a correspondingly oblique guiding surface 38 in the knob brings about this radial displacement. The function of the lever with relation to activating the switch should be evident from the above description of the construction of the lever. However, the function shall here be summed up. Operating the lever always occurs by means of the knob 1, which is gripped by the hand of the operator and diεplaced εidewardε to a pre- elected activating position, for inεtance a gear position. The lever part 2 is, however, mounted in a mechanism that provides a resistance which supersedes the resistance of the centering ring 13 in the knob when striving at centering the knob relative to the lever part 2. In the position shown in Figures 1-4, the knob has a central, neutral position and by a radially directed hand movement of the knob 1 in any direction, the centering element 13 will be compressed at that side where the force is put, whereby the knob iε allowed to be moved sidewards to an eccentric position relative to the lever part 2 and more specifically itε longitudinal axiε 3. Already by a very εmall diεplacement contact will εomewhere arise between the contact element 14, which is movable by the knob, and the stationary contact element, that is the end part 10 of the lever part, and, more specifically, its surface. Such an activated position is shown by means of an example in Fig. 5, which has been accomplished after moving the knob 1 seen in the section according to Fig. 5, in a direction obliquely upwards to the right. Thereby, the switch will be closed and the circuit connected to it, which in this case will give rise to a disengagement of a clutch before gearing occurs. As soon aε the grip around the knob 1 ceases, it will return to its centre position through the action of the centre ring 13 and resume its initial form and hence create a force against the wall 11. The centering ring 13 is located inside this wall and the contact element will again be centered and the contact space 18 will be main- tained around its whole circle so that the switch will be open and the clutch function again will be resumed when the gear position has been obtained. By having the centre ring 13 aε well aε the contact ring 14 in the εame εpace between the end part of the lever part 2 and the inwardly turned surface 11 of the knob, it is assured that the contact ring 14 continually is centred independently of posεible deviationε due to toleranceε during manufacture. It iε evident that the partε besides the contact elements themselves are of electrically isolating material so that no other circuit is closed in any other way. The knob is made from a relatively strong, durable shape-stable plastics which is easy to grip and that can be somewhat deformable in the εurface, whereaε the bushing 5 may be made from a somewhat harder material, such as curable plastics. Also the sleeve 34 may be made from a plastic material. The lever according to the second embodiment shown in Figures 6 and 7 coincides with the first embodiment with the exception of the construction of the movable contact element. This contact element, which has been denoted with 40, also consistε of a εubεtantially ring-εhaped element but iε not a cloεed ring. It iε instead divided in two or more, in the example shown four electrically conducting sectionε 41-44, which here are electrically isolated from each other by being arranged with spaceε 63 between each other. They can, by meanε of their own individual electrical connection, be a part in a εeparate circuit for each contact element εection. Through the εmaller, outer diameter in the surface of the stationary contact element 10, which in this example also is its contact surface, the contact point in the knob 1 which is moved to an eccentric position will also in this case be a point contact seen in the section according to Fig. 7 so that in principle contact is obtained with only one contact sector each time. This means, accordingly, that a predetermined circuit will be closed dependent on the direction of the radial movement to an eccentric position of the knob 1. With this division of the movable contact element a switch with more positions is, consequently, obtained in which one of the contact partε iε common and connectable to one or more contact partε. Hereby different electrical functionε can be switched on dependent on the moving direction of the knob. When it is used as a gear lever, an electrically driven clutch can for instance be activated having variable time delay depending on which gear that shall be used, which meanε in which direction the knob is moved and, accordingly, what contact is activated. The section divided element 40 according to Figures 6 and 7 is principally mounted in the same way as the contact element according to the first embodiment, that means maintained in position by means of an inwardly directed substantially rotation symmetrical surface, which continually has a stationary reference to the inwardly turned rotation symmetrical surface that holds the centering element 13 in poεition, which meanε in the exampleε εhown the inwardly turned cylindrical εurface 11, which iε a common position maintaining guiding surface for both the centering element 13 and the contact element 40. At the embodiment according to Figures 6 and 7, the contact element 40 has also been provided with a ring-shaped holder 45 of an electrically insulating material in which the contact sections 41,42 are partly moulded in so that their inner periphery 47, that means their circular arc-shaped contact surface, can be brought into electrical contact with the contact surface 48 of the second contact element 10, which is the surface of the upper part of the lever part. The holder 45 is also mounted stationary against turning in the knob 1 so that the contact sectionε maintain a predetermined angle interval around the longitudinal axiε 3 of the lever. In thiε εecond embodiment the cylindrical guiding εurface 11 is provided with a recess 49 into which the holder 45 protrudes having a corresponding protrusion 50. When operating by means of the lever according to Figures 6 and 7 from its neutral position that contact εection 41- 44 will be connected, which through the radial movement of the knob to an eccentric position is moved forward towards the stationary contact part. In this example the contact functionε have been divided in four equally large angle εectorε of circa 90°, whereaε the εector borderε are decided by the poεitionε of the εpaceε 63. The third embodiment of the lever which iε εhown in Figures 8 and 9, is an alternative to the εecond embodiment according to Figureε 6 and 7 but giveε in principal the same electrical function as this one, namely closing of different electrical circuits in dependence of the direction of the movement of the lever. In thiε third embodiment only two contact poεitionε have been choεen for a cloεed circuit but even thiε εolution can be adapted to more contact functionε if wanted. At this third embodiment one has instead of a diviεion of the ring-shaped contact element's periphery chosen to divide the contact element in element sectionε which are located at different levelε along the upper part of the lever part 2. One can εay that the contact element iε εectioned in εectionε lying in different radial planeε around εaid upper part, which repreεentε the stationary contact element. In practice, the movable, ring-shaped contact element haε been complemented by a further movable ring-εhaped contact element for each contact position wanted. In the example shown, two contact positionε are wanted where the switch is closed and hence two contact elements 51,52 repreεent the movable part of the εwitch together with the knob 1. To achieve a εector division of the contact surface of the movable contact elementε 51,52 εimilarly to the embodi-ment according to Figures 6 and 7, these have been arranged on different levelε along the upper part of the lever part and also have been shaped with mutually, radially somewhat displaced inner peripherieε 53,54. That meanε that they have mutually displaced arc centres whereby the inner peripheries over only a part of its circumference makeε the actual contact εurface of the switch. In the example shown, the contact elements 51,52 have been so formed that their outer peripheries 55,56 are concentric and, as in the examples above, maintained in position by the inwardly turned cylindrical guiding surface 11 in the knob 1. Between this guiding surface and the end part 10 of the lever part 2 is the elastic, centering element 13 located and located with regard to the height level between the movable contact element 1 of the switch and the end surface of the rotation symmetrical space, which is delimited inter alia by the guiding surface 11. The differences in centricity of the two contact elements 51,52 is in this example obtained simply by having these shaped with separate circular holes, which are mutually displaced with regard to their arc centres. To be able to maintain a subεtantially εymmetrical contact εpace 57 in the neutral position shown in Fig. 9 with open switch, both contact elements 51 and 52 are in the example shown symmetrically eccentric relative to the common longitudinal axis 58 of the knob 1 and the lever part 2. The arc centres of the two inner peripheries 53,54 are preferably diametrically oppositely positioned at each side of said longitudinal axis 58 and located at equally large distances from this. To assure a predetermined angle interval of the contact functions, the contact elements 51,52 have been locked in a chosen turning position relative to the longitudinal axis 58. This has been solved in the example shown by providing them with a protrusion 59 which protrudes into a corresponding recess 60 in the knob 1. As appearε from Figureε 8 and 9 the eccentricity of the inner peripherieε 53,54 of the contact elementε 51,52 will reεult in that above a certain angle interval, in the example εhown 180°, that iε, to the right of the symmetry line 61, one contact element 51, in the example shown the upper contact element, will protrude and lie closer to the stationary contact surface of the εtationary contact element, that iε, its periphery 62. As both of the inner peripheries 53,54 are circular the lower contact element will in a corresponding way with its inner periphery protrude and be located closer to the stationary contact element than the inner periphery of the upper contact element above further 180°of the total periphery, which iε to the left of the εymmetry line 61. When operating by meanε of the lever according to Figureε 8 and 9 from the neutral position and in a direction above the angle interval 180° to the right of the symmetry line 61 the knob 1 will be moved radially so that contact between the stationary contact element 10 and the lower contact element 52 is obtained by meanε of the left half of itε inner periphery whereby the switch and its connected electrical circuit is closed for actuating an electrically driven device activating an indication means or the like. The invention is not limited to the above described embodiments which are also shown in the drawings, but can be varied in a number of different ways within the scope of the subεequent claimε. For example it iε thinkable that the centering element 13 iε located between the upper part 22 of the εhaft and the inner wall of the lever part 2. The contact ring 14 can then be maintained outside, but it can also as an alternative be arranged around the upper part of the shaft 19 so that the inwardly turned surface 21 of the lever part 2 makes a contact surface for cooperation with the movable contact element 14. Instead of eccentrically displacing the inner periphery of the contact element as according to Figures 8 and 9, the contact elements can alternatively be given different arc radius over different sectors of their inner peri-phery. By the expression "stationary contact element" is meant that this element in the switch has been stationarily arranged in the lever part, whereas "the movable contact element" iε movable together with the knob. With the expression "contact surface" is meant that surface of respective contact elements by which contact can be obtained between the movable and the stationary contact element with regard to the construction of the switch.

Claims: Claimε: 1. Lever with a knob (1) and an elongated lever part (2) which in one end carrieε the knob and is at a distance from said end connected to a mechanism that is to be operated, the knob includes an electrical switch (14,12/40,48/51,52,62), c h a r a c t e r i z e d in that the knob (1) is movable in different directions radially relative to the longitudinal axis (3) of the lever part and includes a cavity (4) into which the lever part (2) protrudeε with itε one end part (10) and that said cavity (4) has a peripheral εurface (11) which defineε a εpace to the εurface (12/48/62) of said end part of the lever part, that in said space an elastically ring-shaped centering element (13) is located which, by means of its one periphery abuts against said peripheral surface of the εpace and with itε other periphery abutε againεt εaid end part of the lever part and partly at leaεt one ring-shaped movable electrical contact element (14/40/51,52) being part of the switch and which is connected to the knob and arranged to follow it in its movements, that said centering element (13) striveε at centering εaid contact element relative to εaid end part (10) of the lever part εo that in a neutral poεition for the knob the movable contact element haε a εpace to εaid end part of the lever part which end part formε a stationary contact element in the lever being part of the switch and that by manual, sidewards movement of the knob relative to the lever part in any of said different directions, the ring-shaped contact element iε moved radially to one of εeveral different contact poεitions in contact with the other contact element. 2. Lever according to claim 1, c h a r a c t e ¬ r i z e d in that said ring-shaped contact element (14) has an unbroken contact surface (17) in the shape of a close periphery, which extends along said end part (10) of the lever part (2) and is adapted at operation of the knob to close a predetermined electrical circuit indepen¬ dent of the chosen contact position. 3. Lever according to claim 1, c h a r a c t e - r i z e d in that said movable contact element (40/51, 52) is arranged sectionwise to be brought into contact with the stationary contact element (10) so that different contact functionε may be obtained in different directions. 4. Lever according to claim 3, c h a r a c t e ¬ r i z e d in that the movable contact element (40) is so divided that it consists of two or more sections (41-44) electrically isolated from each other and having each one its own contact surface which occupies a predetermined εector around the longitudinal axis (3) of the knob. 5. Lever according to claim 3, c h a r a c t e ¬ r i z e d in that the movable contact element is so divided that it consists of two or more closed ring elements (51,52) extending around the stationary contact element (10) , the contact surface for each one of the ring elements extending over one or more predetermined sectors around the longitudinal axis (3) of the lever. 6. Lever according to claim 5, c h a r a c t e ¬ r i z e d in that the contact εurface for each of the ring elementε (51,52) iε made of a part of their inner periphery (53,54) and that the ring elements' inner peripheries are circular arcs with mutually displaced centres. 7. Lever according to claim 1, c h a r a c t e ¬ r i z e d in that εaid peripheral εurface (11) of the εpace (4) iε limited by an inwardly turned envelope surface, which iε a εupporting εurface for both the centering element (13) and the ring-εhaped contact element (14) . 8. Lever according to claim 1, c h a r a c t e - r i z e d in that the lever part (2) iε a pipe and includeε a central εhaft (19) connected to the knob and having a hinging ball (20) arranged to be a hinging centre for the radial movementε of the knob. 9. Lever according to claim 1, c h a r a c t e ¬ r i z e d in that an axially, stationary bushing (5) made from an electrically isolating material is mounted on the lever part (2) and included in the space (4) of the knob (1) and has supporting sliding surfaceε (26) which extend tranεverεally to the longitudinal axiε (3) of the lever part (2) and on which the knob iε carried by means of corresponding supporting and sliding surfaces (25) on the knob so that a space (27) iε maintained between the end part of the lever part in the εpace (4) and surfaces in the space turned towards the end surface. 10. Lever according to claim 9, c h a r a c t e ¬ r i z e d in that the knob (1) and the bushing (5) include snapping organs (28,30), which make a snap- locking adapted in a mounting moment for mounting of the knob (1) to allow axial input of the knob on the lever part (2) to abutment between said support and sliding surfaces (25,26) but to lock against axial movementε of the knob in opposite axial direction. 11. Lever according to claim 1, provided with an axially movable sleeve (34) which is adapted to be dis¬ placed along the lever part (2) c h a r a c t e r i ¬ z e d in that the sleeve (34) includes guiding organs (37) for cooperation with guiding organs (38) in the knob (1) adapted to bring about said radial movement of the knob at axial displacement of the sleeve. 12. Lever according to any of the preceding claims, c h a r a c t e r i z e d in that the lever is a gear lever for gearing between gear positionε of a gear box in a motor vehicle and that εaid εwitch (12-14) is adapted to actuate an electrically driven clutch for release during gearing moments. 13. Lever according to claim 12, c h a r a c t e¬ r i z e d in that said sleeve (34) is included in a barrier mechanism adapted to be released manually at changing of a reverse gear whereby the clutch is released. 14. Lever according to claim 1, c h a r a c t e ¬ r i z e d in that the knob (1) is nonturnably connected to the lever part (2) , that is, locked against turning movements around its longitudinal shaft axis (3) . 15. Lever according to claim 9 and 14, c h a r a c t e r i z e d in that the bushing (5) iε nonturnably mounted on the lever part (2) and has locking organs (29) arranged to cooperate with corresponding locking organs (32) in the knob (1) for locking against turning thereof relative to the lever part.

Inventors: SKOGWARD KENNETH, STENEVI JAN, SKOGWARD, KENNETH, STENEVI, JAN
Applicants: SCANDMEC MECANIA AB
Application year: 1990
Main classification: B60K41
IPC codes: B60K20, F16H59, F16H63, G05G1