专利摘要:
A row-crop harvester has a frame displaceable in a predetermined travel direction and formed with a plurality of forwardly open throats each provided with a respective conveyor chain each in turn spanned over a respective drive sprocket. Each such drive sprocket is carried on a respective drive shaft having a drive gear that meshes with the drive gears of the conveyor chains to each side. Each drive shaft with its respective sprocket and gear are together mounted in a respective housing bolted to the frame of the harvester and having a mounting flange whose outer periphery corresponds to the pitch circle of the respective drive gear. A main gear meshing with one of the drive gears rotates all of these drive gears simultaneously, and each conveyor chain has a stretch exposed in a respective throat of the machine which is opposite the stretch of the flanking chains for backward advance of cut crop.
公开号:SU1049007A1
申请号:SU787770178
申请日:1978-05-04
公开日:1983-10-23
发明作者:Теодор Ейстерт;Герхард Шмидт;Кристян Ноак;Манфред Тейхманн;Бернд Цумпе;Манфред Ейдам;Ханз-Петер Спейда;Стефан Раушенбах;Карлхейнц Раулиш;Зигфрид Шольц
申请人:Феб Комбинат Фортшритт Ландмашинен (Инопредприятие);
IPC主号:
专利说明:

2. The drive according to claim 1, from l ich ayu. til and with the fact that the inter-axial distances of the cylindrical pairs are equal in magnitude,
3. The actuator according to claim 1, characterized in that the mWh axis distances of the cylindrical pairs in projection onto the plane perpendicular to the feed direction decrease from medium to extreme sprockets.
4. The actuator according to claim 1, characterized in that the cylindrical gear transmission 8 is made so that the drive mechanisms of the supply chains 16, consisting of a shaft b with a support 14 of the bearing housing 15 and spreading upwards on the shaft 6 of the driving sprocket 5, and below - cylindrical gears 7, mounted on the housing 17 with bolts 18,
5. The actuator according to paragraph 4, of which the bearing housing 15 has a flange of 19 s / circumference around the perimeter, is equal to the diameter
Pitch Circle Cylindrical Gear 7.
6. The drive according to PP, 4 and B, that is, in that the flanges 19 of adjacent bearing housings 1.5 adjoin each other without a gap.
7. The actuator according to claim 1, characterized in that the cylindrical
; gear transmission 8 is mounted in case 17 with a box-shaped cover in which bearing shafts b are mounted on support 14 with cylindrical gear 7 at the lower end and driving asterisk 5 on the upper console end located in the same plane with them -. blunt over the cover, and the cylindrical gears are meshed with adjacent ones.
- /
8. The actuator according to claim 7, characterized in that the oil on the bath is formed by a housing and a cover, in which there are gears 7.
.one
The invention relates to a chain feeder drive for a regular corn harvesting machine used mainly for harvesting large crops such as corn and sunflower from several rows in a single working stroke.
Drive chain feeders are known for single row and multi core corn harvesting machines, in which the feed chains are driven using a shaft located across to the feed direction of the shaft, driven by a V-belt transmission, chain drive or gearbox. The individual supply chains from this shaft are driven through an open bevel gear. The drive shaft rotates in the twin bearing located on the frame, and has a drive sprocket on the upper end.
The drive shaft can be moved axially to set the gap between the teeth of the bevel gears. In corn-harvesting machines with three or more feeding channels, the latter are displaced in height, so that the working grippers of the feeding chains at the transition point partially overlap each other. As a result of this, the transition to field powering bodies is not as wide as that of the supply chains, which are
I in the same plane. However, a higher inclination of the driving shafts of the bevel gear transmission is required for the higher supply chains, since the 5 S is the receiving point for the harvested crop in front of the corn harvesting machine. Supply chains must be located at the same height. This requirement of different directions of the output part
-l can only answer bevel gear; .;
The disadvantage of the device is that the width of the junction of the discharge opening of multi-spread corn-harvesting machines with feed channels displaced in height and without them becomes so large that the chopper feed device is likely to be made wider than that required for
0 given bandwidth. In addition, the placement of the wide feed device in field shredders of a self-propelled type is associated with many disadvantages
5 due to the location of the supply chains
on one straight line in front of the powering device, since the drive: is carried out from the shaft, is located across the junction of the power supply device. .
0 Known drives of chain feeders through a bevel gear, which prevent these disadvantages, well, of which the middle supply chains end farther from the feeding device than the external ones, for which an additional shaft is needed. With a shift in height of the supply channels, the width at the point of transition to the supply device can be increased only by means of greater construction and material costs for the supply channels and a large amount of installation work with the drive means. The use of individual bevel gears for each supply chain has the disadvantage that only conical wheels that are relatively labor-consuming to manufacture can be used. In addition, a large number of bevel wheels and a large laboriousness of mutual adjustment of individual bevel gears and pitakhd chains are necessary. Another disadvantage is the short service life of such drives, since I have an open structure and are located in places of heavy contamination. The purpose of the invention is to create a chain-fed feeder for a row corn-harvesting machine with a large working grip, which, having a small joint width at the feeding device of the adjoining field shredder, a simple design and small material intensity, provided. Easy installation and long service life. The basis of the invention is when the chain feeder water is of a closed design, in which the drive sprockets are arranged as necessary to ensure a minimum joint width, and for which a small number of transmission wheels and drive elements are required, provided that a large number of identical parts are used. This goal is achieved by the fact that the drive of the chain feeder is carried out through a multi-stage cylindrical gear transmission, with the transmission shafts at the top protruding from it and equipped with driving sprockets for the supply chains. The shafts of the transfer shaft are located in such a way that, counting from the middle shafts, adjacent to them on both sides and each next cylindrical pair with respect to the previous one, are displaced in the feed direction of the harvested crop. As a result of this, the external supply chains terminate directly at the next field feed grinder next, as well. the average is most distant from it. This arrangement is also decisive for the selection of the outer shapes of the gearbox j-body. The spur gear drive is driven by Goat of one of the two cylindrical pairs located FRIENDLY through the drive unit when its spur gear engages with the corresponding spur gear. The drive of the drive unit is produced by means of known rotating drive elements, such as an articulated shaft, hydraulic motor, gearbox, chain drive, etc. The cylindrical gear train has a housing carrying all the drive mechanisms of the supply chains; However, the drive from the cylinder 1 gear can be made AND directly to one of the transmission shafts. It does not matter which transmission shaft is driven. It is advisable to place the drive below, because otherwise it may interfere with the flow of the crop to be harvested. The drive of the multistage cylindrical gear drive shafts from the drive unit occurs in such a way that the adjacent gear shafts rotate in the opposite direction, and (drive sprockets located on the top of the shafts drive the supply chains in the feed direction. By using one-way transport channels, t. i. that the supply chain is only on one side of the transport channel, ensuring the supply of the culture to be harvested, two transport channels located next to each other At the transition point, ala can end up in one transport channel. This is achieved by the fact that the supply chains in both transport channels are opposite each other, so that, in the opposite direction of the rotation of the transmission shaft, they run off at the joint transition point, as a result of which For harvesting corn from the outer sides of the transition point, four rows can be transmitted at the shortest distance to the feeding device of the shredder. The ends of the two middle rows of the crop being harvested at the transition point are captured by the stalks of the outer four rows, so that over all of these rows there is an additional feeding effect, i.e. a noticeable negative effect of rearranging the ptyge chains away from capture. . It is advisable to choose inter-axial distances of cylindrical pairs as odium-sized in size or gradually reduce from the middle to the outside. The same center distance provides the same capture rate of the supply chains, and a gradual decrease in the center distance leads to an increase in the capture rate of the external supply chains. Increased capture speed should be used when at very | wide harvesting machines, the reception of the stems of the harvested crop from the outside deteriorates. : It is advisable to design the cylindrical cogs of the gear unit so that the drive units of the supply chains, consisting of the transmission shaft with the bearing housing support and the drive sprocket at the top of the drive shaft, and the sprocket gear at the bottom, are mounted on a rigid case and have a detachable connection . The bodies of the bushings are equipped with a round flange, the sizes of which correspond to the diameter of the pitch circle of the corresponding cylindrical gear, and the flanges of the adjacent bearing bodies lie adjacent to each other without clearance. This design allows for quick installation of individual drives of the supply chains on the case, while observing the required coupling ratios. Another design variant is that the body consists of located, on; the distances from each other and the bodies and lids of the transmission carrying shafts with the support, spur gears and driving sprockets connected by the shaped steel. At the top of the ramp above the cover of the shafts in one of the pits there are leading sprockets of the supply chains. The transmission shafts extending beyond the base plate carry cylindrical gears meshed with adjacent cylindrical gears. The oil in the bath overlaps the entire spur gear. Such a variant of transmission using each shaft as drive for power chains can be further modified by the fact that intermediate gears are included between the drive shafts. Due to this, smaller gears can be used, which is advantageous in the dimensions of the spur gear. In addition, by varying the number of intermediate gears and the corresponding location of the supply chains on the left or right in the transport channel, it is possible to provide a drive for the chain feeder of corn harvesting machines when harvesting any number of rows. Another change in the drive supply chains is also possible by replacing the cylindrical pairs of chain transmissions. The advantages of the proposed drive of the drinking chains are that the arrangement of the transmission shafts provides a small width of the junction of multi-range corn harvesting machines. Compared to bevel gears, gears are reduced by half the number of gears, and the cylindrical gears are less complicated to make than bevel gears. Compact .mjH construction in the form of a cylindrical gear. transmissions — eliminates the time-consuming setup required to install the appropriate gear stages and the drives of the individual supply chains when using separate bevel gears. In addition, a cylindrical gear assembly is assembled from a much smaller number of individual parts than a drive consisting of several bevel gears, which has a positive effect on both the production of gears and the provision of spare parts. The installation of spur gears is also accelerated. The structure is closed. drive supply chains. provides a longer service life. FIG. Figure 1 shows a six-sided bottom of a corn-harvesting machine with a cylindrical gear drive as a drive for supply chains, top view; in fig. 2 — cylindrical gear transmission over the external supply channel and drive unit, section; in fig. 3 is a cylindrical gear of a six-sided corn harvesting machine, top view. The corn harvesting machine 1 has six feeding channels 2, which are arranged in accordance with the width between the rows of the crop being harvested. The supply circuits 3 are made in the form of one side-side supply circuit, that is, in one supply channel 2 there is a supply circuit 3 on one side only, At the same time, two supply chains 3 work together in the transition to the power supply unit 4 of the field grinder, What is achieved by the opposite arrangement of the supply chains 3 in the supply channel 2. Thus, two external and both middle supply channels 2 respectively work together. The supply chains 3 terminate in front of the transition point to the feeding device 4 of the field grinder. m a way that, starting from the medium supply circuits 3 adjacent to them on both sides and each A further towards predschuschey shifted .napravlenii supplying retractable cult
ry As a result, the outer supply chains 3 end at the shortest distance from the feeding unit 4, and the middle supply chains 3 are located at the greatest distance from it. The drive sprockets 5 of the feeding chains 3 are fixed on the console sections of the upstream shafts 6, fitted on the lower end of the cylindrical gear 7. The cylindrical justers 7 form, in accordance with the arrangement of the shafts 6, gears which are meshed and arranged in a row of cylindrical pairs arranged in cylindrical gear 8.
The spur gear 8 is driven by a spindle 9, located at one end of successive cylindrical pairs and meshed with a corresponding spur gear 7. The drive spindle 9 is driven in an almost vertical direction.
. The located drive shaft 10, a conical pair 11, a horizontal belt transmission 12 and a drive shaft 13 coming from the main machine.
The cylindrical gear transmission 8 is made in such a way; the mechanism of supply chains 16 consisting of the transmission shaft b, the bearing 14, the bearing housing 15, the driving star 5 and the cylindrical
0 gear 7, is placed on the housing 17 by means of bolts 18.- The bearing housings 15 are provided with circular flanges 19 having a circle diameter equal to the pitch diameter.
5 of the circumference of the cylindrical gear gear 7. Separate fur aneem feed chains 16 are mounted on the housing 17 so that the flanges 19 are adjacent to each other without a gap.
Recognized as an invention by result-. there is an examination carried out by the Office for the Invention of the German Democratic Republic.
M 16 16/5
five /
PhieZ
权利要求:
Claims (8)
[1]
. 1. DRIVING FOOD CHAINS OF A RIGGER CLEANING MACHINE with a large working grip ,
It is due to the fact that the multistage spur gear 8 is installed in the housing 17 and the shafts 6 have cantilever sections extending upward from the housing, on which the drive sprockets 5 of the supply chains 3 and arranged so that, starting from the middle shafts b, adjacent to them on both sides and each subsequent cylindrical pair in relation to the previous one is shifted in the direction of supply of the harvested crop, and on one of the two ends of the cylindrical pairs, i there is a drive mechanism 9, using engine and find meshing with the extreme g spur gear 7 of the shaft 6.
SU ,,,. 1049007>
[2]
2. Drive on π. 1, due to the fact that the interaxal distances of the cylindrical pairs are the same in magnitude.
[3]
3. Drive on π. 1, characterized in that the mazosha distance of the cylindrical pairs in the projection onto a plane perpendicular to the direction of flow, decreases from medium to extreme asterisks.
[4]
4 ', Drive pop. 1, characterized in that the cylindrical gear 8 is made so that the drive mechanisms of the supply circuits 16, consisting of a shaft 6 with a support 14 of the bearing housing 15 and located on the top of the shaft 6 of the drive sprocket 5, and at the bottom of the spur gear 7, are mounted on the housing .17 bolts 18.
[5]
5. The drive according to claim 4, with a lt and so on that the bearing housing 15 has a perimeter flange 19 with l;
/ circle diameter equal to the diameter of the pitch circle of the cylindrical gear 7.
[6]
6. The drive according to paragraphs 4 and 5, characterized in that the flanges '19 of the adjacent bearing housings L5 are adjacent to each other without a gap.
[7]
7. Drive on π. 1, characterized in that it is cylindrical ; gear 8 is mounted in a housing 17 with a box-shaped cover, in which the bearing shafts 6 are mounted on a support 14 with a spur gear 7 at the lower end and a drive sprocket 5 on the upper cantilever end located in the same plane with them and · · '. dull above the lid, and spur gears mesh with adjacent ones.
... - ;
[8]
8. The drive according to claim 7, characterized in that the oil bath is formed by a housing and criticism in which gears 7 are located.
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同族专利:
公开号 | 公开日
US4204387A|1980-05-27|
DD131334A1|1978-06-21|
FR2393522A1|1979-01-05|
DD131334B1|1979-12-27|
HU187252B|1985-12-28|
引用文献:
公开号 | 申请日 | 公开日 | 申请人 | 专利标题
WO1989010051A1|1988-04-20|1989-11-02|Golovnoe Spetsializirovannoe Konstruktorskoe Bjuro|Harvester for reaping the sunflower|US3094831A|1959-09-03|1963-06-25|Boldrin Luigi|Motor weeder, particularly for weeding road sides and the like|
US3311186A|1963-09-09|1967-03-28|Simplicity Mfg Company|Riding tractor|
FR1524150A|1967-02-13|1968-05-10|Kuhn Freres & Cie|Disc mower|
US3507102A|1967-05-25|1970-04-21|Sperry Rand Corp|Rotary mower drive|
US3589110A|1967-08-24|1971-06-29|Deere & Co|Gear drive and support for corn-harvesting unit|
FR1562886A|1967-12-22|1969-04-11|
DK132981C|1968-01-31|1976-08-09|Vissers Nv Herbert|SLAMASKINE|
US3585789A|1969-03-26|1971-06-22|Sperry Rand Corp|Three row row crop attachment|
US3736733A|1970-11-04|1973-06-05|Hesston Corp|Three-row crop header for forage harvesters|
DD120752A3|1975-12-10|1976-07-05|Corn cutter|
US4084396A|1976-01-19|1978-04-18|Hesston Corporation|Adjustable row spacing forage head|
US4106270A|1976-04-20|1978-08-15|Hesston Corporation|Four row forage harvester|GB2048039B|1979-05-04|1982-11-10|Sperry Rand Nv|Row crop attachment|
DE3033257C2|1979-09-11|1983-01-13|Deere & Co., Moline, Ill., US, Niederlassung Deere & Co. European Office, 6800 Mannheim|Harvesting device for crops that are preferably planted in rows|
US4269017A|1979-09-11|1981-05-26|Deere & Company|Harvester header with a main frame of modular subframes|
US6370853B1|1999-10-13|2002-04-16|Case Corporation|Drive system for corn header row units|
US8527157B2|2010-04-28|2013-09-03|Deere & Company|Agricultural combine and draper header|
US9913430B2|2014-09-15|2018-03-13|Cnh Industrial America Llc|Power takeoff drive assembly for a corn header of an agricultural harvester|
法律状态:
优先权:
申请号 | 申请日 | 专利标题
DD19931777A|DD131334B1|1977-06-06|1977-06-06|FEEDING CHAIN DRIVE OF A SERIOUSLY WORKING MAIZE MACHINE OF LARGE WORKING WIDTH|
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