The present application is a national stage application under 35 U.S.C. §371 of International Application No. PCT/RO2006/000019 with an international filing date of Jul. 3, 2007, and claims priority of Romanian application 2005 00773 filed Sep. 13, 2005.
1. Field of the Invention
The invention refers to a mechanical control shock-absorbent anti-recoil mechanism, intended for industrial and civil constructions, machine building industry, defense industry, robotics, etc., its purpose being to protect against the impact forces, recoil forces or vibrations that occur in an instantaneous manner or under operation.
2. Discussion of Background Information
There are known shock-absorbent anti-recoil mechanisms that are equipped with springs, telescopic means, hydraulic brakes, magnetic brakes etc. These mechanisms have the disadvantage that they do not provide neither an multiple applicability nor possibilities to adjust the effect of the impact forces acting on construction, firearm etc., that occur in an instantaneous or a controlled manner, under the action of the outer impact forces, a recoil or vibrations.
Also, are known joint lever and spring mechanisms, as e.g. the U.S. Pat. No. 5,211,369, EP 0135107, U.S. Pat. No. 3,118,643 (Souzzo) or U.S. Pat. No. 4,497,466 (Perrier), these have an configuration, presenting levers and compression springs, of extension, etc having compositions which do not present the possibility of using thereof in reception systems of absorption and cancelation of some shock or recoil forces. The patents known in the above cited prior art, are considering their use in domains of heat carrier transport, in domain of the pantographic devices, to maintain the parallelism of the pipelines against a plan, or of the parallelism between the pipes which transport heat carrier that puts to the dilatations of thereof.
The above mentioned patents have not multiple use, they are only required for protection of some pipelines against dilatations, and their configuration does not allow to be used for reception of shock or recoil forces.
There are also known anti-recoil mechanisms which are able to overtake the recoil energy of the portable firearms. These mechanisms have also the disadvantage that they do not provide multiple applicability, while the component parts of the some assemblies or subassemblies complicate their construction and increase the cost price of the product.
The technical problem that the invention solves consist in the achievement of a mechanical control shock-absorbent anti-recoil mechanism which has a simple construction, needs an easy access fabrication technology, ensures an use and an important effect of decreasing or even cancellation of the impact forces or of the recoil forces, so that the cancellation of said impact forces or recoil forces which occurs instantaneously or under controlled action be achieved in a continuous manner, according to the protection requirement that is imposed on the operation of the construction, machine, equipment or firearm.
The mechanical control shock-absorbent anti-recoil mechanism, according the invention, solves the technical problems and removes the above-mentioned disadvantages in that: a mobile holder X, that comprises a joint spindle, a connecting screw and an gliding holder provided in the top with an guide longitudinal hole, two threaded holes and a joint cross hole executed in the pushing shoulder, in which penetrate a joint pin which form a joint coupling jointed with a joint lever and spring mechanism, which, at the posterior side, is elastically connected with an end holder Z. The joint lever and spring mechanism Y comprises: four levers with reduced length provided at both ends with passing and joint holes, and in the middle another passing and joint hole, four levers with greater length provided at the previous ends with each a passing and joint hole each, in the middle with another passing and joint hole, and at the posterior ends with two passing and joint holes each, the elastic connection between the mobile holder and the joint lever and spring mechanism is one by the joint pin that penetrates in the pushing shoulder hole, and by the passing and joint holes from the ends of the levers with reduced length, which attaches right—left on the joint pin and are assured by the locks, forward through passing and joint holes existing in the middle of the levers with reduced length penetrate two spring-seat joint pins, which receive from the right—left side, the ends with passing and joint holes existing at the four levers with greater length, these are assured by locks, making a joint coupling, the spring-seat joint pins have provided at the ends passing holes wherein penetrate the ends of the two absorption springs placed right—left side. The levers with reduced length have at the ends passing holes wherein penetrate spring-seat joint pins on top and bottom, wherein penetrate locks, and with passing holes, wherein penetrate the ends of the two absorption springs placed right—left side, forward the levers with greater length, intersect in the middle, where are executed passing and joint holes wherein penetrate the joint pin, wherein penetrate locks, forming thus in the right side a figure in form of deformable rhomb, and in the left side an variable angle (α), the posterior free ends of the levers with greater length have provided four passing and joint holes through which penetrate spring-seat joint pins, passing holes wherein penetrate the ends of two absorption springs placed right—left side, and the ends of other four cancellation springs, placed right—left side, these make the joint connection with an end holder Z, which is composed of a mounting and adjusting key on which is supported the edges of the ends of the levers with greater length.
The mechanical control shock-absorbent anti-recoil mechanism resolves the problems stated above in that: an end holder, formed of an base holder which at the ends have provided penetrated longitudinal holes, equidistant central passing holes, penetrated central hole, screwed holes longitudinal equidistant, screwed holes cross equidistant, a guide seat, two spring-seat screw spindles with penetrated holes at the ends wherein penetrate the ends of the four cancellation springs placed right—left side, a spindle provided at the end with a screw, which penetrate in the superior longitudinal passing hole, that it passes, it bears two compression springs between which is placed an spacer, the end of the screwed spindle passes the superior longitudinal hole of the gliding holder, and maintain an parallelism with the joint lever and spring mechanism through the joint connection, the screwed end of the screwed spindle make common body with the body subjected to the shock or recoil forces, two clamping screws, and on the bottom through the penetrated longitudinal hole wherein penetrate a connecting screw with fixation role of the end holder by the body subjected to the shock or recoil forces.
The mechanical control shock-absorbent anti-recoil mechanism resolves the problems stated above in that: a mechanical adjusting mechanism K composed of: triple nut longitudinal passed of: two equidistant screwed holes, a central penetrated screwed hole, a central screw, provided at one end with a mouthing, at the other end is provided an adjusting key, in the guide seat penetrate the triple nut and the screwed pin of the central screw, of which processed end penetrate in the central penetrated hole, being assured by a lock, in the right side of the central holder is positioned a mounting and adjusting key provided with cross screwed holes wherein penetrate two pins with screwed ends with different diameters, the ends with reduced diameters penetrate through the equidistant central passing holes screwed up in the equidistant screwed holes of the triple nut, forming thus a fixed connection between the triple nut and the mounting and adjusting key, on which is supported the edges of the ends of the levers with greater length between which is formed a variable angle (α).
The mechanical control shock-absorbent anti-recoil mechanism according to the invention has the following advantages:
In the following, the invention is described by an embodiment example in connection with accompanying drawings 1 to 13 in which:
The mechanical control shock-absorbent anti-recoil mechanism A (
The mechanical control shock-absorbent anti-recoil mechanism A (
The mechanical control shock-absorbent anti-recoil mechanism A (
The mechanical control shock-absorbent anti-recoil mechanism A (
Number | Date | Country | Kind |
---|---|---|---|
2005-00773 | Sep 2005 | RO | national |
Filing Document | Filing Date | Country | Kind | 371c Date |
---|---|---|---|---|
PCT/RO2006/000019 | 9/12/2006 | WO | 00 | 3/12/2008 |
Publishing Document | Publishing Date | Country | Kind |
---|---|---|---|
WO2007/046724 | 4/26/2007 | WO | A |
Number | Name | Date | Kind |
---|---|---|---|
920135 | Harrod, Joel E. | May 1909 | A |
1550944 | Beidler et al. | Aug 1925 | A |
1893295 | Le Bailly | Jan 1933 | A |
2277875 | MacBeth | Mar 1942 | A |
2731753 | Mathieu | Jan 1956 | A |
2867399 | Alexeff | Jan 1959 | A |
3118643 | Suozzo | Jan 1964 | A |
3207496 | Hrebicek | Sep 1965 | A |
3604138 | Wilson | Sep 1971 | A |
3754344 | Spiliotis | Aug 1973 | A |
4497466 | Perrier | Feb 1985 | A |
5211369 | Hoerner | May 1993 | A |
5752339 | Bentley et al. | May 1998 | A |
5974718 | Bentley et al. | Nov 1999 | A |
Number | Date | Country |
---|---|---|
135107 | Mar 1985 | EP |
WO 2006101410 | Sep 2006 | WO |
Number | Date | Country | |
---|---|---|---|
20080258363 A1 | Oct 2008 | US |