Hand-held power tool with application tool library

Abstract

Hand-held power tool (100), in particular screwdriver, having a housing (105) and an application tool magazine (150), at least one drive motor (180) for driving a tool receptacle (140) being arranged in the housing, wherein the drive motor (180) can be activated by means of a manual switch (130), and wherein the tool receptacle (140) is configured for receiving an application tool (191), the application tool magazine serving for storing a plurality of selectable application tools, in which hand-held power tool the manual switch (130) can be manipulated for loading a selected application tool (191) arranged in the application tool magazine (150) from the application tool magazine (150) into the tool receptacle (140) in the axial direction (102) of the drive motor (180) and for activating the drive motor (180).

Description

Technical Field

[0001] The present invention relates to a handheld power tool, particularly a screwdriver, having a housing and an application tool library, wherein at least one drive motor for driving a tool receiving unit is arranged in the housing, wherein the drive motor can be activated by a manual switch, and wherein the tool receiving unit is configured to receive application tools, and the application tool library is used to store a plurality of selectable application tools. Background Technology

[0002] Such handheld machine tools with application tool libraries are known from the prior art. A pushing device is provided to move the application tools arranged in the application tool library into the tool receiving section of the handheld machine tool. The user of the handheld machine tool manually moves a pushing element associated with the pushing device longitudinally, thereby moving the application tool from the application tool library into the tool receiving section. Summary of the Invention

[0003] This invention relates to a handheld power tool, particularly a screwdriver, comprising a housing and an application tool magazine. At least one drive motor for driving a tool receiving section is disposed within the housing, wherein the drive motor is activatable by a manual switch, and wherein the tool receiving section is configured to receive application tools, and the application tool magazine stores a plurality of selectable application tools. The manual switch is operable to load a selected application tool disposed in the application tool magazine from the application tool magazine into the tool receiving section in the axial direction of the drive motor and to activate the drive motor.

[0004] Therefore, the present invention provides a handheld machine tool in which a manual switch can activate the drive motor and move the application tool from the application tool library to the tool receiving unit, thus enabling simple and user-friendly operation.

[0005] Preferably, the manual switch can be manipulated from an unloaded, non-working position to a loading position and a working position, in which the selected application tool arranged in the application tool library is loaded into the tool receiving unit, and in the working position, the drive motor is activated.

[0006] Therefore, it is possible to provide a multi-functional manual switch in a simple way.

[0007] Preferably, the manual switch is equipped with a loading device having a loading element, which loads the selected application tool arranged in the application tool library into the tool receiving unit when the manual switch is in the loading position.

[0008] Therefore, it is possible to safely and reliably move application tools to the tool receiving unit.

[0009] Preferably, the loading device has a lever arm that connects the manual switch to the loading element.

[0010] Therefore, the motion of the manual switch can be easily and simply transmitted to the loading device.

[0011] According to one embodiment, the lever arm is connected to the loading element via a slider, wherein the slider has a receiving portion and the lever arm has a cam disposed in the receiving portion.

[0012] Therefore, coupling between the lever arm and the loading device can be achieved in a simple way.

[0013] Preferably, at least one gear is arranged on the slider, and the loading element has an associated rack section for moving the loading element in the axial direction of the drive motor to load a selected application tool arranged in the application tool library into the tool receiving section.

[0014] Therefore, it is possible to safely and reliably move the selected application tools arranged in the application tool library to the tool receiving unit.

[0015] Preferably, the loading device has a locking element that locks the loading element in a locking position when the manual switch is in the loading position.

[0016] Therefore, it is possible to prevent accidental movement of the loaded element in a simple way.

[0017] The locking element is preferably manually operable in the locking position to release the loading element.

[0018] Therefore, it is possible to safely and reliably release the loaded element.

[0019] According to one embodiment, a manual switch arranged in the working position can be released from the working position to the loading position to deactivate the drive motor, wherein the adjustment of the manual switch from the loading position to the non-working position can only be completed when the locking element is arranged in the corresponding release position.

[0020] Therefore, it is easy and simple to prevent the accidental release of application tools located in the tool receiving section.

[0021] Preferably, in order to select one application tool from the plurality of application tools, the application tool library is rotatably supported in or on the housing via a library axis, wherein the application tool library is rotated by the user of the handheld tool manually rotating the application tool library about the library axis to select one application tool from the plurality of application tools.

[0022] Therefore, it is possible to operate the application tool library safely and reliably.

[0023] According to one embodiment, a control element is provided for manipulating the application tool library, wherein moving the control element in the lateral direction of the library axis by a user of the handheld tool causes the application tool library to rotate about the library axis.

[0024] Therefore, the application tool library can be easily rotated to select the desired application tool.

[0025] Preferably, the actuating element is equipped with at least two spring elements that can be compressed when the actuating element moves in the lateral direction of the library shaft to rotate the application tool library, wherein a support element fixed relative to the housing is arranged between the at least two spring elements.

[0026] Therefore, intuitive operation of the control elements can be achieved.

[0027] Preferably, the manual switch is arranged on the handle of the handheld tool, the locking element is arranged on the area of ​​the housing of the handheld tool away from the tool receiving part, and the application tool library, especially the operating element, is arranged on the area of ​​the housing of the handheld tool facing the tool receiving part and the manual switch, so as to enable one-handed operation.

[0028] Therefore, it is possible to provide a compact and user-friendly handheld machine tool.

[0029] Attached diagram The invention is described in more detail below with reference to the embodiments presented in the accompanying drawings. The drawings show: Figure 1 A side view of a handheld machine tool with an application tool library and loading device is shown. Figure 2 The image shows the first state of the loading device with the housing open. Figure 1 A three-dimensional view of a handheld machine tool. Figure 3 This illustrates another position of the loading device with the housing open. Figure 2 A cross-sectional view of a handheld machine tool. Figure 4 Shown in Figure 3 The position of the loading device Figures 1 to 3 A perspective view of a loading device, the loading device having a manual switch, an application tool library, and a tool receiving section for the handheld machine tool. Figure 5 Showing the assignment to Figures 1 to 4 A top view of the slider of the loading device. Figure 6 Show Figure 5 A top view of the slider, viewed from the bottom. Figure 7 Showing the assignment to Figures 1 to 4 A perspective view of the lever arm of the loading device. Figure 8 This diagram shows an alternative loading device in the first state. Figure 1 A side view of a handheld power tool. Figure 9 The intermediate position of the loading device is shown. Figure 8 A side view of a handheld power tool. Figure 10 This shows another position with a loading device. Figure 8 and Figure 9 A side view of a handheld power tool. Figure 11 Showing a device with manipulation elements Figures 8 to 10 A 3D view of the application tool library. Figure 12 Show Figure 11 A front view of the application tool library, and Figure 13 Showing alternative application tool libraries Figures 8 to 10 A three-dimensional view of a handheld machine tool. Detailed Implementation

[0030] In the accompanying drawings, elements with the same or similar functions are given the same reference numerals and are described only once in more detail.

[0031] Figure 1 A handheld power tool 100, exemplarily configured as a screwdriver, is shown. This handheld power tool has a housing 105, in which at least one drive unit 125 is disposed. The housing 105 is preferably composed of two half-shells (…). Figure 2 It consists of 202).

[0032] Preferably, the drive unit 125 has at least one drive motor 180 for driving the tool receiving section 140 of the handheld power tool 100. The drive motor 180 can be activated by a manual switch 130. The manual switch 130 is arranged on the handle 115 of the housing 105.

[0033] According to one embodiment, the drive unit 125 is equipped with a transmission device 120. Preferably, the transmission device 120 is configured as a planetary gear transmission device.

[0034] The tool receiving unit 140 is configured to receive one application tool 191 selected from a plurality of application tools 196. By activating the drive motor 180, the application tool 191 arranged in the tool receiving unit 140 can rotate together with the tool receiving unit 140 as shown in the figure.

[0035] Preferably, the handheld power tool 100 has an application tool library 150 for storing a plurality of selectable application tools 196. In the illustration, the application tool library 150 contains a plurality of application tools 196, or application tools 192, 193, 194, and 195. Application tool 191, located in the tool receiving unit 140, also belongs to the plurality of application tools 196. Application tool 191... Figure 1 The tool is loaded or pushed from the application tool library 150 into the tool receiving unit 140, and can be pushed back into the application tool library 150 after use. In order to select the application tools arranged in the application tool library 150 among the application tools 191-195, the application tool library 150 can be rotated in the circumferential direction 108.

[0036] Preferably, the drive unit 125 is equipped with a drive shaft / drive axis 106. Furthermore, the tool receiving section 140 is equipped with a driven shaft / driven axis 107. The drive shaft 106 is configured to drive the driven shaft 107. Preferably, the drive axis 106 and the driven axis 107 are arranged parallel to each other. Preferably, the tool library 150 is arranged on the drive axis 106.

[0037] The application tool library 150 has a ring-shaped or cylindrical housing 152, 153 rotatable along its longitudinal axis, preferably divided into two halves in the longitudinal direction. The first housing portion 152 is preferably made of an opaque plastic material, while the second housing portion 153, connected to the first housing portion 152 in the longitudinal direction, is preferably constructed of transparent plastic. The first housing portion 152 is designed for manual adjustment of the application tool library 150 within the handheld power tool 100 and is, for example, equipped with grooves to allow the user to adjust the application tool library 150 easily and accurately.

[0038] The housing contains receiving sections arranged at uniform angles. Figure 12The receiving part (1110) is used to receive the corresponding application tools 191, 192, 193, 194, and 195. The receiving part is configured such that application tools 191, 192, 193, 194, and 195 can be pushed into or guided into their respective receiving parts by means of pin-shaped elements. For this purpose, the receiving part has corresponding openings or through-holes on its two opposing ends. In particular, application tools 192, 193, 194, and 195 are configured as so-called bit tools, which have different tool tips so as to be able to screw into or out different fastening elements, especially different screws.

[0039] A transparent second housing portion 153 is arranged in the following area of ​​the application tools 192, 193, 194, and 195: the tips of the application tools 192, 193, 194, and 195 are also located in this area. This allows the user to identify from outside the handheld power tool 100 which application tool 192, 193, 194, or 195 is in the corresponding receiving section, because the tip of each application tool displays the distinctive features of application tool 192, 193, 194, or 195.

[0040] Preferably, the manual switch 130 can be operated to load or push the selected application tool 191, arranged in the application tool library 150, from the application tool library 150 into the tool receiving section 140 in the axial or longitudinal direction 102 of the drive unit 125 or drive motor 180. Similarly, the manual switch 130 is preferably operable to activate the drive motor 180.

[0041] Preferably, the manual switch 130 can be in a non-working position where it has never been loaded. Figure 2 281 in the middle is loaded or manipulated to the loading location ( Figure 3 381) and / or work location ( Figure 10 In 899). In the non-working location that has not been loaded ( Figure 2 In step 281), the user of the handheld power tool 100 does not operate the manual switch 130. Furthermore, the user of the handheld power tool 100 is in the loading position ( Figure 3 In position 381), the manual switch 130 is loaded and moves along the first path from the non-operating position. Here, at the loading position ( Figure 3 In step 381), the selected application tool 191, located in the application tool library 150, is loaded or pushed into the tool receiving unit 140. Furthermore, in the working position (… Figure 10 In position 899), the manual switch 130 moves along another loading path starting from the loading position. Preferably, in the operating position of the manual switch 130 ( Figure 10 In (899), the drive motor 180 is activated.

[0042] Preferably, the manual switch 130 is equipped with a loading device 160. The loading device 160 is in the loading position of the manual switch 130 ( Figure 3 (381) The selected application tool 191, arranged in the application tool library 150, is loaded into the tool receiving unit 140. The loading device 160 is equipped with an unlocking element 169 for unlocking.

[0043] According to one embodiment, the handheld power tool 100 can be mechanically and electrically connected to the battery pack 190 to operate independently of the mains power supply; however, it can also be operated in conjunction with the mains power.

[0044] Figure 2 Show Figure 1 The handheld power tool 100, wherein, in the illustration, the housing 105 is open, or only one half of the housing 105 202 is shown. Figure 2 The structure of the drive unit 125 with drive motor 180, as well as the application tool library 150 and loading device 160, are shown.

[0045] The loading device 160 is preferably equipped with a loading element 242, which will be in the loading position of the manual switch 130. Figure 3 The selected application tool 191, arranged in the application tool library 150 (381) is loaded or pushed into the tool receiving unit 140. Figure 2 In this configuration, application tool 191 is arranged in application tool library 150. Furthermore, the loading device 160 preferably has a lever arm 210 that connects the manual switch 130 to the loading element 242. Preferably, the lever arm 210 is connected to the loading element 242 via a slider 220. Here, the slider 220 has a receiving portion 221, and the lever arm 210 has a cam 213 arranged in the receiving portion 221. At least one gear 231, 232 is arranged on the slider 220.

[0046] Preferably, the loading element 242 has an elongated base 240. Furthermore, the loading element 242 preferably has a rack section 241 arranged away from the tool receiving portion 140, which is used to move or push the loading element 242 in the axial direction or longitudinal direction 102 of the drive motor 180. The rack section 241 has teeth that face laterally or towards the housing half-shell 202. Here, when the loading element 242 is moved in the axial direction 102, the selected application tool 191 arranged in the application tool library 150 is loaded or pushed into the tool receiving portion 140.

[0047] Furthermore, the loading device 160 preferably includes a locking element 250. The locking element 250 is preferably located in the loading position of the manual switch 130. Figure 3 In step 381, the loading element 242 is locked in the stop position. Figure 3 In 359). Furthermore, in the blocking state ( Figure 3 In section 359), the locking element 250 can be manually manipulated to release the loading element 242.

[0048] exist Figure 2 In this configuration, the manual switch 130 is arranged in its non-operating position 281. Preferably, a spring element 285 loads the manual switch 130 into the non-operating position 281. However, the manual switch 130 is not loaded or operated by the user in its non-operating position. The spring element 285 is here arranged to be fixed relative to the housing.

[0049] The manual switch 130 preferably has at least one cam element 256, by which the manual switch 130 is rotatably supported in at least one of the two housing halves 202. Furthermore, the manual switch 130 has a guide element 205 that forms a receiving portion 204. Preferably, the receiving portion 204 is configured in an L-shape.

[0050] Preferably, the lever arm 210 is rotatably supported in at least one housing half of the housing half 202 by at least one support element 212. Here, the support element 212 is preferably arranged on the receiving section 211. The receiving section 211 is preferably arranged in the receiving portion 204 of the manual switch 130. The lever arm 210 has a lever section 214 at its end facing away from the manual switch 130. The lever section 214 has a cam 213 at its end facing the slider 220. According to one embodiment, the lever section 214 is configured as a fork or U-shape, wherein the drive motor 180 is surrounded by the lever section 214. Preferably, the U-shaped lever section 214 has a cam 213 at its end facing away from the manual switch 130.

[0051] Preferably, the slider 220 has a receiving portion 221 on its side facing the corresponding housing half-shell 202, or in the vertical direction 209 of the handheld tool 100, for guiding the cam 213 of the lever arm 210. Furthermore, the slider 220 has at least one guide element 254, 255 for guiding in the axial direction, or longitudinal direction 102, within a guide groove 251 facing the housing half-shell 202. Additionally, the slider 220 has at least one, preferably two, support trunnions 222 constructed in the vertical direction 209. These two preferred support trunnions 222 are configured to support the at least one gear 231, 232. Preferably, two gears 231, 232 are arranged on each support trunnion 222. Figure 2 The gear 231 located in the upper part of the housing is operatively connected to the teeth 252 of the housing half-shell 202. Figure 2 The gear 232 located in the lower part is preferably operatively connected to the rack section 241 of the loading element 242.

[0052] In addition, Figure 2 In the figure, the locking element 250 is arranged in its released position 259. The locking element 250 is preferably arranged parallel to the loading element 242 in its released position 259. Preferably, the locking element 250 has an elongated base and at least one, in the figure, two unlocking elements 169, the elongated base being... Figure 2 The unlocking element 169 is preferably positioned in the transverse direction relative to the longitudinal axis 102. Figure 4 The 499) is arranged on the blocking element 250.

[0053] According to one embodiment, the unlocking element 169 and the locking element 250 are integrally constructed. Preferably, the two unlocking elements 169 each pass through a slot in the housing half-shell 202. Thus, the user can manipulate the unlocking element 169 to unlock or release the locking element 250. Preferably, the locking element 250 is equipped with a spring element 286. The spring element 286 pretensions the locking element 250. Furthermore, the locking element 250 has a rotation point 287 about which the locking element 250 can rotate to enter the locking position from the released position 259. Figure 3 In 359) or vice versa. Here, the rotation point 287 is fixed or supported relative to the housing 105, especially the housing half 202.

[0054] also, Figure 2The drive shaft 106 and the driven shaft 107 are arranged in parallel, wherein the two shafts 106 and 107 are spaced apart from each other in the vertical direction 209. Preferably, the drive shaft 106 is equipped with a gear 291 and the driven shaft 107 is equipped with a gear 292, wherein the two shafts 106 and 107 are connected to each other by the two gears 291 and 292.

[0055] Preferably, the lever arm 210 has a receiving portion ( Figure 7 (612 in the middle), wherein the slider 220 with gears 231 and 232, the locking element 250 and the loading element 242, and the drive motor 180 are all arranged in the receiving part ( Figure 7 Within 612). In particular, the lever section 214 of the lever arm 210 surrounds the slider 220 with gears 231, 232, the locking element 250, the loading element 242, and the drive motor 180.

[0056] Figure 3 The diagram shows a device with loading device 160. Figure 2 The handheld power tool 100 includes a manual switch 130 that is moved to a loading position 381 by a user applying load or actuation in the direction of arrow 382. By positioning the manual switch 130 in the loading position 381, the spring element 285 is partially compressed. Furthermore, the lever arm 210 rotates counterclockwise, or in the illustration, around its support element 212. Figure 2 The cam 213 rotates toward the tool receiving part 140. Consequently, the cam 213 of the lever arm 210 loads the slider 220, thus causing the slider 220 to... Figure 3 It moves to the left or towards the tool receiving part 140. When the slider 220 moves, the gear 231 moves on the teeth 252 in the housing 105.

[0057] Preferably, the loading element 242 is arranged in the receiving section 321 of the slider 220. Here, the receiving section 321 is constructed in the lateral direction ( Figure 4 (499) or in the middle of the two supporting trunnions 222 of the slider 220. The gear 232 preferably causes the loading element 242 to be in the longitudinal direction 102 (see 499) via the toothed section 241. Figure 1 and Figure 2 The loading element 242 moves toward the tool receiving section 140. The application tool 191 is loaded, or rather pushed, from the application tool library 150 into the tool receiving section 140 by the movement of the loading element 242 toward the tool receiving section 140. Due to the movement of the loading element 242 toward the tool receiving section 140, the receiving section 321 is released by the loading element 242, causing the locking element 250 to swing through its rotation point 287 into its locking position 359. Thus, the loading element 242 moves along the longitudinal direction 102 (see...) via the locking element 250. Figure 1 and Figure 2 It is locked.

[0058] Preferably, the application tool library 150 is associated with a library shaft 305. Preferably, the application tool library 150 is supported on the library shaft 305 by two bearing elements 311, 312. According to one embodiment, the library shaft 305 is associated with a drive shaft 106. Preferably, the library shaft 305 forms part of the drive shaft 106. In order to... Figure 1 and Figure 2 Application tool 191 is selected from a plurality of application tools 196, and the application tool library 150 is rotatably supported in or on the housing 105 via a library shaft 305. Preferably, the application tool library 150 is rotated manually by the user of the handheld machine tool 100 to select one application tool 191 from the plurality of application tools 196. Here, the application tool library 150 rotates about the library shaft 305.

[0059] Figure 4 Show Figures 1 to 3 The handheld power tool 100 includes a drive unit 125 with a drive motor 180, a transmission device 120, an application tool magazine 150, a tool receiving unit 140, and a manual switch 130 with a loading device 160. Figure 4 In the middle, the manual switch 130 is arranged in the loading position 381.

[0060] In particular, Figure 4 The slider 220 and its receiving portion 221 constructed in the vertical direction 209 are shown, and the cam 213 of the lever arm 210 is arranged in the receiving portion. Furthermore, Figure 4 The slide block 220 has a support trunnion 222 on which gears 231 and 232 are supported. The support trunnions 222 are preferably spaced apart in the lateral direction 499, such that the support trunnions 222 with their corresponding gears 231 and 232 are arranged laterally to the loading element 242. Conversely, the loading element 242 is arranged between the support trunnions 222 with their corresponding gears 231 and 232.

[0061] also, Figure 4 The guide bars 254 and 255 of the slider 220 are shown. Preferably, the slider 220 has two opposing guide bars 254 and 255, which are used for... Figure 1 The shell of 105 Figure 2 and Figure 3 The guide bar 254 and 255 are constructed in the lateral direction 499. In the longitudinal direction 102, the guide bar 254 is arranged facing the tool receiving part 140, and the guide bar 255 is arranged facing the locking element 250. Preferably, the receiving part 221 is arranged between the guide bars 254 and 255 in the longitudinal direction 102.

[0062] In addition, the locking element 250 is in Figure 4 The loading element 242 is blocked by the locking element 250 in its locking position 359. Furthermore... Figure 4 A locking element 250 is shown, having two unlocking elements 169 constructed in the lateral direction 499. Here, the unlocking elements 169 are preferably arranged vertically on the base of the locking element 250. By loading at least one unlocking element 169 downwards, or in the direction of arrow 402, as shown in the illustration, the locking element 250 flips at its rotation point 287, whereby the locking element 250 releases the loading element 242. Due to the release of the loading element 242, the slider 220 moves back to the right, or in the direction of arrow 404, as shown in the illustration, thereby releasing the manual switch 130 and allowing the manual switch 130 to pass through... Figure 2 and Figure 3 The spring element 285 is moved to Figure 2 In non-working location 281.

[0063] Figure 5 Show Figures 1 to 4 The loading device 160 has a slider 220. The slider 220 has two guide bars 254 and 255, which are spaced apart from each other along the longitudinal extension direction 501 of the slider 220. Preferably, the longitudinal direction 501 of the slider 220 is parallel to the loading device 160 in its assembled state. Figures 1 to 4 The drive unit 125 is positioned longitudinally 102. Between the two guide bars 254 and 255, there are respectively arranged for guiding... Figures 2 to 4 The receiving part 221 of the lever arm 210. The guide bars 254 and 255 are constructed here perpendicular to the longitudinal extension direction 501.

[0064] Furthermore, a connecting strip 422 is preferably arranged on the guide strip 254, and a support trunnion 222 is preferably constructed at the free end of the connecting strip. Here, the support trunnion 222 is constructed to be at least approximately cylindrical. The support trunnion 222 is constructed perpendicular to the plane of the paper and preferably has a retaining strip 412 at its free end. The retaining strip 412 has a diameter larger than that of the support trunnion 222.

[0065] Furthermore, the support trunnion 222 preferably has at least one slit 411 at its free end. Through said at least one slit 411, the support trunnion 222 is spring-elastically constructed at its free end. Due to this spring-elastic construction of the support trunnion 222, Figure 2 and Figure 4 The gears 231 and 232 can be pushed onto the support trunnion 222. Preferably, the connecting bar 422 is arranged at an angle 425 to the guide bar 254, or the lateral direction 499. Furthermore, the slider 222... Figure 5 The central genus has a symmetry axis of 498.

[0066] Figure 6 Shown from the bottom view Figure 5 The slider is 500. Here, Figure 6 The diagram shows a support trunnion 222 with a retaining strip 412 and the at least one slit 411. Furthermore, Figure 6 A receiving section 221 constructed in the vertical direction 209 is shown. The receiving section 221 is configured for receiving... Figures 2 to 4 The receiving area 321 is centrally located on the loading element 242. Here, the receiving area 321 is constructed on the longitudinal direction 501 of the slider 220.

[0067] To reliably arrange the loading element 242 in the receiving region 321, it is preferable to provide at least one locking strip 512 constructed in the lateral direction 499, or in the radial direction of the receiving region 321. Preferably, two locking strips 512 are provided, wherein the locking strips 512 are arranged on the side belonging to the receiving part 221 and facing the receiving region 321. Furthermore, the receiving part 221 has a receiving section 513 in the region of its free end on its side facing the receiving region 321. Preferably, Figures 2 to 4 The locking element 250 is arranged in the receiving section 513 in its released position 259 and in the receiving area 321 in its locking position 359. Furthermore, the slider 220 preferably has reinforcing ribs 520 on the guide bar 255.

[0068] Figure 7 Show Figures 2 to 4 The lever arm 210 of the loading device 160. Here, Figure 7 The diagram illustrates a receiving section 211 having two preferably opposing support elements 212. The support elements 212 are arranged in the lateral direction 499, or vertically outward, on the receiving section 211, particularly in the region of the receiving section 211 facing the lever section 214. As described above, the support elements 211 support the lever arm 210. Figures 1 to 3 The rotating shaft is preferably formed within the housing 105 of the handheld power tool 100. Furthermore, a loading trunnion 611 is arranged at the end of the receiving section 211 opposite to the lever section 214. The loading trunnion 611 passes through... Figures 1 to 4 The manual switch 130 is loaded, causing the lever arm 210 to swing about its axis of rotation, or support element 212.

[0069] also, Figure 7 Indicates lever section 214, which has a cam 213 pointing inward in the lateral direction 499 for arrangement in Figure 5 and Figure 6The slider 220 is housed in the receiving portion 221. As described above, the lever section 214 is at least approximately constructed as a U-shape having the receiving portion 612. A [missing information - likely a device or structure] is arranged in the receiving portion 612. Figures 1 to 4 The drive motor 180, i.e., the lever section 214 surrounds the drive motor 180.

[0070] Figure 8 The diagram shows a manual switch 130 in the non-operating position 281. Figures 1 to 3 The handheld power tool 100. A manual switch 130 is associated with an on / off switch 730 configured to activate a drive motor 180. In the non-operating position 281, a distance 701 is formed between the manual switch 130 and the on / off switch 730.

[0071] according to Figure 8 In the embodiment shown, lever arm 210 is loaded into a non-operating position by a spring 740 fixed relative to the housing. Figure 8 In the embodiment shown, the lever arm 210 is configured in an L-shape and is preferably directly connected to the loading element 242 via at least one cam 213. Here, the lever arm 210 may have a lever section 214 laterally arranged on the drive motor 180, or as... Figures 2 to 4 The ground is shown, with two lever sections 214.

[0072] Furthermore, the locking element 250 is pre-tensioned in the figure by the spring element 750 against the loading element 242. Here, the locking element 250 only has the unlocking element 169. Preferably, the unlocking element 169 is in Figure 8 In this embodiment, the loading element 169 is arranged on the back side of the handheld power tool 100, or on the end of the handheld power tool 100 opposite to the tool receiving section 140. Release can be achieved by manipulating the unlocking element 169 in the longitudinal direction 102, or towards the tool receiving section 140. Preferably, the loading element 242 has a magnet element 760 attached to its end facing the tool receiving section 140, or its end facing the plurality of application tools 196. The magnet element 760 is configured to reliably load the application tools 191 from the application tool library 150 into the tool receiving section 140 or from the tool receiving section 140 into the application tool library 150.

[0073] Preferably, the rotation direction switch 710 of the drive motor 180 is arranged on the upper side 799 of the handheld tool 100. To adjust the rotation direction, the rotation direction switch 710 is movable in the longitudinal direction 102. Preferably, an operating element 720 is provided for operating the tool library 150. The operating element 720 is preferably arranged in the vertical direction 702 between the drive motor 180 and the manual switch 130, and preferably in… Figure 4The lateral direction 499 can be manipulated.

[0074] According to one implementation, the user of the handheld power tool 100... Figure 4 The horizontal direction 499 or in other words Figure 12 On 1102 and 1103, in application tool library 150 Figure 3 The movement of the operating element 720 caused by the movement of the tool magazine 305 causes the application tool magazine 150 to rotate about the tool magazine 305. Preferably, the manual switch 130 is arranged on the handle 115 of the handheld tool 100. The locking element 250 is preferably arranged on the area of ​​the housing 105 of the handheld tool 100 opposite to the tool receiving section 140. Furthermore, the application tool magazine 150, and especially the operating element 720, are arranged on the area of ​​the housing 105 of the handheld tool 100 facing the tool receiving section 140 and the manual switch 130, so that the application tool magazine can be operated with one hand.

[0075] Figure 9 Show Figure 8 The handheld power tool 100 includes a manual switch 130 arranged in a loading position 381. In the loading position 381, the manual switch 130 has been moved or actuated toward the handle 115 in the direction of arrow 801, thereby reducing the distance 701 between the manual switch 130 and the on / off switch 730. By actuating the manual switch 130, the receiving section 211 of the lever arm 210 is loaded toward the lower section of the receiving portion 204 of the manual switch 130 in the vertical direction 702, as shown in the figure, thereby causing the lever arm 210 to rotate clockwise 802 around its support element 212. Here, the loading element 242 preferably moves toward the tool receiving portion 140 in the longitudinal direction 102, or in the direction of arrow 803. Due to the loading of the loading element 242 by the lever arm 210, the locking element 250 preferably moves from its release position 259 (see...). Figure 2 ) via its rotary bearing 287, it swings in the direction of arrow 804, or counterclockwise, to the locking position 359 (see Figure 3 In the application tool library 150, the application tool 191 is loaded or moved into the tool receiving unit 140 by the movement of the loading element 242.

[0076] Figure 10 Show Figure 8 and Figure 9The handheld power tool 100 includes a manual switch 130 positioned in a working position 899. Here, the manual switch 130 engages an on / off switch 730, thereby activating the drive motor 180. In the working position 899, the receiving section 211 of the lever arm 210 is positioned at the end of the receiving portion 204 of the manual switch 130 opposite to the tool receiving portion 140. Therefore, by activating the drive motor 180, the application tool 191, along with the tool receiving portion 140, can rotate in the circumferential direction 902.

[0077] The spring element 750 is compressed by loading the unlocking element 169 of the locking element 250 in the direction toward the tool receiving part 140, and the locking element 250 is able to rotate around its rotation point 287 and release the loading element 242.

[0078] If the user of the handheld power tool 100 releases the manual switch 130 or removes the applied force from the manual switch 130 in the working position 899, the manual switch 130 is brought to or moved to... Figure 9 The application tool 191 is in the loading position 381. Only by releasing the locking element 250 does the application tool 191 move from the tool receiving section 140 back to the application tool library 150 and the manual switch moves back to its non-working position 281 (see [link]). Figure 8 ).

[0079] Figure 11 Show Figures 1 to 4 An application tool library 150, according to one embodiment, has a plurality of locking elements 1010 on its outer circumference. Preferably, locking elements 1011 and 1012 among the plurality of locking elements 1010 are configured as widening portions in the radial direction 1018 and longitudinal direction 1019 of the application tool library 150. Preferably, the application tool library 150 is equipped with Figure 7 The actuating element 720 preferably has a rectangular base 1029 arranged parallel to the application tool library 150. The actuating element 720 has two loading bars 1030, 1031, preferably facing each other, on its side facing the application tool library 150. The loading bars 1030, 1031 are preferably arranged such that the locking elements 1011, 1012 of the plurality of locking elements 1010 can be centrally positioned relative to the loading bars 1030, 1031. Furthermore, the actuating element 720 is associated with at least one, preferably at least two, spring elements 1020, 1021. Figure 3 The transverse directions of shaft 305 are 1102 and 1103 (see...) Figure 12When the moving manipulator 720 rotates the application tool library 150, the spring elements 1020 and 1021 can be compressed. By compressing one of the two spring elements 1020 and 1021, the locking elements 1011 and 1012 of the plurality of locking elements 1010 are loaded by at least one loading bar 1030 and 1031.

[0080] Figure 12 Show Figure 11 The tool library 150 and the operating element 720 are loaded into the housing 105 of the handheld power tool 100. The operating element 720 is arranged on the housing 105 in a rotation direction switch manner and can be operated or moved laterally, or in the lateral direction 499, or in the lateral directions 1102, 1103 of the shaft 305. By exemplarily loading the operating element 720 to the right in the lateral direction 1102, or to the right in the illustration, the spring element 1020 is loaded toward and thus compressed towards the support element 1099 fixed relative to the housing. Here, the operating element 720 moves to the right in the illustration, wherein the loading bar 1030 loads the locking element 1199 of the tool library 150 counterclockwise and thus rotates the tool library 150 in the circumferential direction 1101, the locking element being arranged between the loading bars 1030, 1031. Furthermore, Figure 12 The receiver 1110, which is assigned to the application tool library 150, is used for arranging... Figure 1 The multiple application tools 196 include application tools 191, 192, 193, 194, and 195.

[0081] Figure 13 It shows a library of 150 application tools. Figures 1 to 4 The handheld power tool 100, according to another embodiment, has a loading bar 1210 only in the circumferential direction 1101. Here, the loading bar 1210 is preferably constructed along the overall longitudinal extension direction of the application tool library 150, or the longitudinal direction 1019. The loading bar 1210 is loaded by the user, especially by the finger 1220 of the user of the handheld power tool 100, which causes the application tool library 150 to rotate in the circumferential direction 1101. Here, the rotation of the application tool library 150 in the direction of arrow 1201, or clockwise, is caused by the rotation or loading of the finger 1220, especially the user's index finger. Here, the application tool library 150 rotates in the circumferential direction 1101, especially clockwise, for selecting application tools.

Claims

1. A handheld power tool (100) having a housing (105) and an application tool magazine (150), wherein at least one drive motor (180) for driving a tool receiving unit (140) is arranged in the housing, wherein, The drive motor (180) can be activated by a manual switch (130), and wherein the tool receiving unit (140) is configured to receive an application tool (191), the application tool library being used to store a plurality of selectable application tools, characterized in that the manual switch (130) can be operated to load a selected application tool (191) arranged in the application tool library (150) from the application tool library (150) into the tool receiving unit (140) in the axial direction (102) of the drive motor (180) and to activate the drive motor (180).

2. The handheld machine tool according to claim 1, characterized in that, The manual switch (130) can be manipulated from an unloaded, non-working position to a loading position and a working position. In the loading position, the selected application tool (191) arranged in the application tool library (150) is loaded into the tool receiving unit (140). In the working position, the drive motor (180) is activated.

3. The handheld machine tool according to claim 2, characterized in that, The manual switch (130) is equipped with a loading device (160) having a loading element (242), in which the loading element loads the selected application tool (191) arranged in the application tool library (150) into the tool receiving unit (140) in the loading position of the manual switch (130).

4. The handheld machine tool according to claim 3, characterized in that, The loading device (160) has a lever arm (210) that connects the manual switch (130) to the loading element (242).

5. The handheld machine tool according to claim 4, characterized in that, The lever arm (210) is connected to the loading element (242) via a slider (220), wherein the slider (220) has a receiving portion (221) and the lever arm (210) has a cam (213) arranged in the receiving portion (221).

6. The handheld machine tool according to claim 5, characterized in that, At least one gear (231, 232) is arranged on the slider (220), and the loading element (242) has a corresponding rack section (241) for moving the loading element (242) in the axial direction (102) of the drive motor (180) to load the selected application tool (191) arranged in the application tool library (150) into the tool receiving unit (140).

7. The handheld machine tool according to any one of claims 3 to 6, characterized in that, The loading device (160) has a locking element (250) that locks the loading element (242) in a locking position (359) when the manual switch (130) is in the loading position.

8. The handheld machine tool according to claim 7, characterized in that, In the latching position (359), the latching element (250) can be manually manipulated to release the loading element (242).

9. The handheld machine tool according to claim 8, characterized in that, The manual switch (130) arranged in the working position can be released from the working position to the loading position to deactivate the drive motor (180), wherein the manual switch (130) is adjusted from the loading position to the non-working position only when the locking element (250) is arranged in the corresponding release position (259).

10. The handheld machine tool according to any one of claims 1 to 6, characterized in that, In order to select one application tool (191) from a plurality of stored application tools, the application tool library (150) is rotatably supported in or on the housing (105) via a library axis (305), wherein the application tool library (150) is rotated by the user of the handheld tool (100) by manually rotating the application tool library (150) about the library axis (305) of the application tool library (150) to select one application tool (191) from a plurality of stored application tools.

11. The handheld machine tool according to claim 10, characterized in that, The device is provided with a control element (720) for manipulating the application tool library (150), wherein the user of the handheld tool (100) moves the control element (720) in the lateral direction (1102, 1103) of the library axis (305) of the application tool library (150) to cause the application tool library (150) to rotate about the library axis (305).

12. The handheld machine tool according to claim 11, characterized in that, The actuating element (720) is associated with at least two spring elements (1020, 1021), which are compressible when the actuating element (720) moves in the lateral direction (1102, 1103) of the library shaft (305) to rotate the application tool library (150), wherein a support element (1099) fixed relative to the housing is arranged between the at least two spring elements (1020, 1021).

13. The handheld machine tool according to claim 7, characterized in that, The manual switch (130) is arranged on the handle (115) of the handheld power tool (100), the locking element (250) is arranged on the area of ​​the housing (105) of the handheld power tool (100) away from the tool receiving part (140), and the application tool library (150) is arranged on the area of ​​the housing (105) of the handheld power tool (100) facing the tool receiving part (140) and the manual switch (130), so that one-handed operation can be realized.

14. The handheld machine tool according to claim 13, characterized in that, A control element (720) for manipulating the application tool library (150) is provided, wherein the user of the handheld tool machine (100) moves the control element (720) in the lateral direction (1102, 1103) of the library axis (305) of the application tool library (150) to cause the application tool library (150) to rotate about the library axis (305), wherein the control element (720) is arranged on the area of ​​the housing (105) of the handheld tool machine (100) facing the tool receiving part (140) and the manual switch (130) to enable one-handed operation.

15. The handheld machine tool according to claim 1, characterized in that, The handheld machine tool (100) is a screwdriver.

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