70results about "Detonators" patented technology

The invention discloses a method and device for automatically grabbing detonators. A device for grabbing the detonator is arranged on a middle blocking production line or an opening closing production line of the detonator; a group of expansion heads are arranged at the bottom of the device; the opening of the detonator is expanded and clamped by the expansion heads through the lifting of a cylinder control device and the deformation of the expansion heads to realize the purpose that the detonator is automatically taken out from a detonator filling mould. In the invention, the expansion heads controlled by machinery are adopted, and the opening of the detonator is expanded and clamped after the expansion heads are deformed, so that the detonator is automatically taken out from the detonator filling mould. A plurality of expansion heads are arranged at the same device, thus a plurality of detonators can be taken out by one device at one time, thereby greatly improving the production efficiency. The method provided by the invention is simple; and the adopted device is easy to manufacture, and has a good using effect.

A method of assembling a primer for a firearm cartridge including the steps of providing a primer cup including a cup base with a circular sidewall extending perpendicularly upward from a perimeter edge thereof, to a rim. Providing an anvil having an anvil base and pressing the anvil into the primer cup with the anvil base spaced apart from the cup base to form a primer gap therebetween. Providing a slurry including a primer composition and a carrier liquid and introducing a controlled volume of the slurry into the primer cup over the anvil. Drying the slurry in the primer cup to remove the liquid carrier and leave a deposit of the primer composition in the primer gap.

The present invention discloses a device for dipping electronic detonators' electronic ignition elements, comprising a frame, on which are provided a first rotating conveyor platform, a second rotating conveyor platform, a return conveying mechanism, a first drying conveying mechanism, a second drying conveying mechanism, a dipping mechanism, a dipping mechanism, a dipping mechanism, a dipping mechanism, and a first manipulator. The first rotating conveyor platform, the return conveying mechanism, and the second rotating conveyor platform are sequentially arranged along a first direction; the first drying conveying mechanism and the second drying conveying mechanism are located on the same side of the frame, and both convey in a second direction perpendicular to the first direction; the first drying conveying mechanism is used to dock with the first rotating conveyor platform, and the second drying conveying mechanism is used to dock with the second rotating conveyor platform; the first manipulator is arranged corresponding to the first rotating conveyor platform. A single device for dipping electronic detonators' electronic ignition elements can selectively perform one or more dipping operations as needed, has extremely strong flexibility, can reduce the number of dipping devices set up in a production line, and save equipment purchase costs.

The invention discloses a low-energy laser combustion improver and a safe ignition method. The combustion improver comprises the following raw materials in percentage by weight: 1-5wt% of phosphorus-containing ligand, 3-8wt% of sulfur-containing ligand, 1-3wt% of metal nickel salt, 1-5wt% of accelerant and the balance of organic solvent. The invention provides a low-energy laser combustion improver and a safe ignition method, the low-energy laser combustion improver can ignite an object to be ignited through low-energy laser at a certain interval at a lower environment temperature, so that the ignition safety of explosives is improved, and the low-energy laser combustion improver can also be used in activities such as performance, magic and celebration; the combustion improver is simple and easy to prepare, free of tedious procedures and harsh conditions, capable of being prepared in an amplified mode, convenient to industrialize, relatively low in price and suitable for popularization.

The invention discloses an automatic detecting and screening device for basic detonators, which belongs to the technical field of basic detonator production and comprises a rotary detecting device, a tube retreating and floating powder wiping device and a waste rejecting device which are connected through a conveying frame. A filling mold and a transfer mold which are used for accommodating a basic detonator are transported in the transportation frame. The basic detonator is detected through the visual detection device, and the explosive height in the basic detonator is detected in batches through the explosive height detection devices arranged at intervals; the safety guarantee is provided for the operation of the follow-up process through the tube withdrawing floating explosive wiping device, and meanwhile, a filling mold for filling a basic detonator is replaced with a transfer mold in the process, so that the packaging and packing step in the follow-up process is facilitated; unqualified products are removed and replaced through the waste product removing device, and the qualified rate of final finished products is guaranteed; the device is high in detection and screening efficiency, and continuity of a detection and screening production line is not affected in the whole process.

The present application discloses a detonator demolding and bundling device and method. A jig is placed at the demolding station, and detonators are placed on the jig. The detonator gripping device grabs the detonators from the jig at the demolding station and transports the detonators to the bundling station. The flipping device receives the detonators conveyed by the detonator gripping device and flips the main body of the detonator towards the direction of the leg wires of the detonator, and flips the wire clips of the detonator towards the direction of the leg wires; the bundling device grabs the binding wires on the binding wire conveying device and drives the binding wires to bundle the detonators; so as to complete the separation of the detonators from the jig and bundle the detonators. Compared with manual demolding and bundling, the detonator demolding and bundling device and method of the embodiments of the present application can improve production efficiency and save labor force.

To provide an electric ignition tool for firework which inhibits flame from extending far behind the ignition tool upon ignition of the electric ignition tool, and has an improved inflammation character with respect to an explosive device for inflammation and a blasting-off explosive.SOLUTION: An electric ignition tool for firework is fixed on an inflammation explosive device for ignition or fixed directly on a blasting-off explosive, so as to be used for igniting the firework, and comprises: an igniter holding cylindrical body made from a resin material or a rubber material; igniter in a powder or particle state; and a plug with a bridge circuit, which plugs the igniter holding cylindrical body to transmit ignition energy, and through which a lead wire is disposed. Therein: the igniter holding cylindrical body is fixed on the plug with the electric circuit such that the electric circuit and the igniter contact closely, the igniter holding cylindrical body has a structure being bottomed with a vicinity of a bottom plate part and / or a peripheral side wall part being caused to explode by an ignition power; the igniter is a composition including metal oxide, a single metal reductant agent, and boron.SELECTED DRAWING: Figure 2

The utility model relates to the technical field of electronic detonator production, and discloses an electronic detonator automatic explosive dipping device which comprises a workbench, vertical rods are symmetrically arranged at the two ends of the workbench, synchronous wheels matched with each other are arranged between the vertical rods, any vertical rod is provided with a motor for driving the synchronous wheels to rotate, and the motor is connected with the workbench. A synchronous wheel is arranged on the workbench, a synchronous belt is wound on the synchronous wheel, a plurality of fixing devices are uniformly arranged on the synchronous belt, a medicine storage barrel which can move up and down and is matched with the fixing devices is arranged at the bottom of the workbench, and baking lamps which are matched with the fixing devices and are symmetrically arranged are arranged on the workbench. Compared with the prior art, the utility model has the advantages of high production efficiency and simple production steps.

This invention discloses a permissible electronic control module for coal mines, along with its testing and manufacturing methods. The method includes coding, a first test, and a second test. The first and second tests involve multiple testing items, such as communication ID confirmation, duplicate code detection, resistance detection, current testing, ignition capacitor detection, bridge wire detection, low-voltage detonation testing, high-voltage detonation testing, delay accuracy testing, and diode testing. This invention performs multi-angle testing on the electronic control module, resulting in more precise and detailed testing methods that prevent accidental detonation. The measurement of delay accuracy ensures instantaneous detonation response during detonation, improving product safety. A glue-filled coating is added to the electronic control module to effectively protect and fix components and soldered parts, preventing loosening or detachment under external forces and avoiding interference from external moisture, dust, and static electricity. This electronic control module can be efficiently manufactured through processes such as surface mount technology (SMT), reflow soldering, and encapsulation, resulting in high efficiency.

The invention relates to a gene gun which is provided with an accelerator module. And an accelerator module coupled to the initiator module and generating supersonic waves by means of the subsonic waves generated by the initiator module. The supersonic wave delivers the particles to cells within the tissue. The accelerator module may include a detonation-detonation transition material and a detonation output material. An example of the detonation-detonation transition material is 5-nitrotetrazole cuprous (I). Other examples of the detonation-detonation transition material are lead azide. An example of the detonation output material is pentaerythritol tetranitrate (PETN).

The invention discloses a method for producing ecological primary explosive - basic bismuth(III) salt of 5,5 '-bis-azotetrazole and its using in ecological mixture for primer compositions of ammunition.

The utility model discloses automatic detonator charging equipment which comprises a bottom plate, a detonator shell conveying rotary table, a detonator shell conveying rotary table and a detonator shell conveying rotary table. A tube shell tray storage system, a shell tray taking and placing module, a shell carrying module, an NG material collecting system, a medicine disc tray storage system, a medicine disc taking and placing module, a medicine disc carrying module, a medicine pouring system, a medicine pressing system, a medicine height detection system and a medicine hopper cleaning device are arranged on the outer side of the tube shell conveying rotary disc. The detonator shell is placed on the detonator shell conveying rotary disc through the shell material disc taking and placing module to achieve station conversion, so that automation of charging, pressing, height measuring, mold wiping and mold withdrawing in the detonator shell is achieved, a closed machine box is installed in the circumferential direction of the bottom plate, and the problems that in the prior art, the production efficiency is low, and the production cost is low are solved. The product precision is difficult to guarantee; and hidden dangers exist in the safety of operators.

The utility model discloses a basic detonator single-shot vacancy automatic detection device, which comprises a first reciprocating driving mechanism and a vertical plate, a product carrier is fixed at the driving end of the first reciprocating driving mechanism, the vertical plate is arranged beside the first reciprocating driving mechanism, a second reciprocating driving mechanism is fixed on the vertical plate, and the second reciprocating driving mechanism is fixed on the vertical plate. A displacement sensor is fixed to the driving end of the second reciprocating driving mechanism, and the lower end of the displacement sensor is connected with a conductive measuring rod. According to the basic detonator single-shot vacancy automatic detection device, an operator does not need to be in direct contact with a detonator medicament, the safety is good, the automation level of basic detonator vacancy detection is also greatly improved, and the product quality is ensured.

The utility model discloses an automatic turning primer shell die-filling tool which comprises a horizontally-placed lower passing plate and an upper passing plate arranged on the top face of the lower passing plate, the upper passing plate can horizontally and linearly slide on the top face of the lower passing plate, a plurality of upper passing plate holes vertically penetrating through the upper passing plate are formed in the upper passing plate, a plurality of vertical lower passing plate holes are formed in the lower passing plate, and the upper passing plate and the lower passing plate are arranged on the lower passing plate. The positions of the lower plate passing holes are in one-to-one correspondence with the same direction sides of the upper plate passing holes. According to the utility model, the preset requirement that a plurality of primer shells are all subjected to mold filling in a posture with upward openings can be realized at one time.

The present invention discloses a base detonator transfer die device and a transfer die machine, which include a first runner base assembly and a second runner base assembly. The first runner base assembly includes a first runner base and a first opening and closing assembly. The first runner base is provided with a plurality of first through holes extending in the up and down direction. Each first through hole is used to receive the base detonators in the mold to be transferred. Each first through hole includes a first upper orifice and a first lower orifice. The first opening and closing assembly includes a first opening and closing plate and a first driving assembly. The first driving assembly is used to drive the first opening and closing plate to move so as to close or open the first lower orifice of each first through hole. The second runner base assembly includes a second runner base and a second opening and closing assembly. The second runner base is located below the first runner base. The base detonator transfer die device of the present invention can reduce the dropping height of the base detonators during the transfer process of the base detonators, and improve the safety factor of the transfer process.

This utility model proposes an electronic detonator assembly control system, including a housing, an injection hole, and a mounting bracket. An electric telescopic rod is mounted on the mounting bracket, and a T-shaped rod is mounted on the output end of the electric telescopic rod. A sleeve is fitted over the T-shaped rod. A sealing cover is fixedly mounted at the bottom of the mounting bracket. A partition divides the original injection hole into two parts. A measured amount of waterproof adhesive is injected using an injection head. The waterproof adhesive enters the waterproof cavity from one side, while the other side ensures air escapes. This makes the injection process more stable and efficient, while also preventing gas residue inside and reducing the defect rate. Furthermore, the partition is made of stainless steel with a smooth surface that does not adhere to the waterproof adhesive, allowing for repeated operation over a long period.

There is provided a composition and method of deposing an initiatory composition, said composition, comprising a:(i) a nanothermite suspension of a metal (M) oxide and a metal (M′) in a solvent, wherein the average particle size of the metal (M) oxide and a metal (M′) is less than 1000 nm, provided that (M)≠(M′),(ii) wherein said nanothermite suspension comprises a charging reagent comprising a reagent capable of forming a stable complex with each of the metal (M) oxide and the metal (M′), to from a metal (M) oxide complex, and a metal (M′) complex that have the same electrostatic charge, such that said metal (M) oxide complex and a metal (M′) complex repel each other in said suspension, wherein the admixture of the binder, nanothermite suspension charging reagent, has been caused to be mixed under Resonant Acoustic Mixing to provide a stable suspension of a nanothermite complex.

On the basis of a technical detonator production line, the intelligent production line further comprises a gas mass flow meter, an industrial camera, a laser profiler, a manipulator, a pressure transmitter, a hydraulic pressure automatic adjusting mechanism, a mechanical structure and a control system, production data are digitally displayed and stored, traceability of the production process is achieved, CPK data of all process links are counted and automatically analyzed, automatic diagnosis of quality problems of all the process links is achieved, process optimization is guided, the quality and reliability of the basic detonator filling process are improved, the reject ratio of basic detonators is reduced, and the production efficiency is improved. The digitization level of a basic detonator filling line is improved, unmanned operation in a dangerous process environment is achieved, and full-line automatic production is achieved.

The utility model relates to the technical field of electronic detonator leg wire production, in particular to an automatic cover opening and shell supplying mechanism for electronic detonator leg wire production, and aims to overcome the defect that the working quality of an automatic cover opening and shell supplying mechanism in the prior art is affected due to the fact that dust is inconvenient to treat, the following scheme is provided: the automatic cover opening and shell supplying mechanism comprises a glue pressing shell assembly large vertical plate; the number of the pressing shell vertical plate reinforcing pins is two, and the two pressing shell vertical plate reinforcing pins are fixedly installed on the top of the pressing glue shell assembly large vertical plate. And the guide rail vibration disc is arranged at the bottom of the glue pressing shell assembly large vertical plate, and a glue pressing air cylinder fixing base is fixedly installed at the bottom of the glue pressing shell assembly large vertical plate. The rubber shell cover plate is arranged on the rubber shell pressing assembly large vertical plate, and a bus pressing block punch is arranged on the rubber shell pressing assembly large vertical plate; and the dust removal structure is fixedly installed on one side of the large vertical plate of the glue pressing shell assembly, dust treatment is facilitated, and therefore the working quality of the glue pressing shell assembly is improved.

This utility model proposes an automated production system for electronic detonator ignition elements, including a base, lead wire, and lead wire reel. The lead wire reel is mounted on the base, and lead wire is wound on the lead wire reel. One end of the lead wire passes through the base and is slidably connected to it. A guide frame is fixedly mounted on the base, and a fixing frame is fixedly mounted on the top of the guide frame. A cylinder is fixedly mounted on the fixing frame, and a connecting rod is fixedly connected to the output end of the cylinder. By setting an annular coating box, continuous uneven rubber protrusions are added to the surface of the lead wire, and the diameter of the lead wire is increased. In this way, when passing through the clamping guide rollers, the lead wire between the two clamping guide rollers is fully clamped, thereby maintaining sufficient friction. This reduces the size of the equipment while ensuring sufficient friction, thus reducing the floor space cost of the factory.

The application discloses a full-automatic electronic detonator production line, which comprises a conveying belt and a conveying carrier driven by the conveying belt, and further comprises an automatic wire winding and moving device, a wire end shaping device, a stripping and wire shaping device, a wire twisting device, an injection molding device, an inner sheath stripping device, a riveting device, a laser welding device, a base pipe loading bayonet device and a detonator packaging assembly which are sequentially arranged along one side of the conveying belt; a junction box lower cover assembling device and a junction box upper cover assembling device are sequentially arranged on the other side of the conveying belt, and the junction box lower cover assembling device and the junction box upper cover assembling device are both located between the stripping and wire shaping device and the detonator packaging assembly. The full-automatic electronic detonator production line can realize full-automatic production and packaging of electronic detonators, does not need manual assistance in the whole process, is beneficial to improving production efficiency and ensuring personal safety of workers.

The utility model relates to the technical field of initiating explosive device assembly, and particularly discloses an automatic detonator assembly device. The device comprises a gluing mechanism, an assembling mechanism, two material taking and placing mechanisms and two visual guiding mechanisms. The material taking and placing mechanisms are used for taking and placing detonator products and can drive the detonator products to rotate around the axes of the detonator products, one material taking and placing mechanism can move the detonator products to a first position, the other material taking and placing mechanism can move the detonator products to a second position, and the detonator products located at the first position and the second position can do inward meshing movement; the gluing mechanism is used for laying coating glue outside the detonator products at the first position and the second position; the assembling mechanism is provided with two assembling positions, and the material taking and placing mechanism can install detonator products at the assembling positions. Each visual guiding mechanism is in communication connection with one material taking and placing mechanism and is used for obtaining image information of one assembling position. The device meets the assembly requirements of detonator products in automatic assembly production, the assembly efficiency is ensured, and the labor intensity is reduced.

The application discloses a method for recycling fine-crystal medicaments generated in a nickel hydrazine nitrate combination process, and belongs to the field of initiating explosive devices and explosive medicaments, and comprises collection of the fine-crystal medicaments and granulation of the fine-crystal medicaments; under the premise that the combination process and device of the nickel hydrazine nitrate are not changed, the fine-crystal nickel hydrazine nitrate is recycled through the crystallization collection technology and the secondary granulation technology, the yield of the nickel hydrazine nitrate is improved, the waste gas produced in the waste medicament destruction process is eliminated, and the environmental protection is improved; the obtained granulated nickel hydrazine nitrate is detected by using a particle size analyzer, and the particle size distribution of the granulated nickel hydrazine nitrate is as follows: 20 mesh to 40 mesh particles account for about 30% of the product, 40 mesh to 60 mesh particles account for about 35%, and 60 mesh to 100 mesh particles account for about 35%, so that the particle size distribution is relatively uniform.

An accelerator module is connected to an initiator module and generates supersonic waves from subsonic waves generated by the initiator module. The supersonic waves deliver particles to cells in tissues. The accelerator module may include a knocking-detonation transition metal and a detonation material. An example of the knocking-detonation transition metal is copper (I) 5-nitrotetrazolate. Another example of the knocking-detonation transition metal is lead azide. An example of the detonation material is pentaerythritol tetranitrate (PETN).

The present application relates to the technical field of detonator transfer moulding, and discloses a detonator distance-changing transfer moulding device, which comprises first feeding structure, receiving assembly, second feeding structure, material taking structure, material discharging structure and mould ejection mechanism arranged in sequence, the first feeding structure is used for feeding the first mould loaded with detonators to the receiving assembly, the second feeding structure is used for feeding the second mould without load to the transfer moulding position, the material taking structure is used for distance-changing transfer moulding of the detonators on the first mould to the second mould, the material discharging structure is used for discharging the second mould loaded with detonators, the receiving assembly is used for moving the first mould after transfer moulding to the discharging position, and the mould ejection mechanism is located at one end of the receiving assembly and is used for discharging the first mould without load. The present application is convenient for distance-changing transfer moulding of detonators and improves the transfer moulding efficiency of detonators.

The application belongs to the technical field of nanocomposites, and particularly relates to a core-shell type thermite, a preparation method and application in a biomass blasting device. The preparation method comprises the following steps: S1, adding fly ash into a hydrochloric acid solution to dissolve the fly ash, then filtering to obtain a filtrate, adding a sodium hydroxide solution into the filtrate, then performing stirring, filtering and drying treatment to obtain a precipitate, calcining the precipitate to obtain iron oxide particles for standby; S2, adding aluminum powder and boron powder into an organic solvent to perform ultrasonic mixing, then performing heating and stirring to volatilize the organic solvent to obtain an aluminum-boron compound, and drying for standby; S3, adding the iron oxide particles, the aluminum-boron compound and an adhesive into an acetone solution to mix uniformly to obtain a mixture, performing stirring and ultrasonic treatment on the mixture to obtain a suspension; adding a polyvinyl alcohol emulsifier into deionized water and performing heating and stirring to obtain an emulsion; S4, in a high-speed dispersion homogenizer, adding the suspension dropwise into the emulsion to wrap the suspension in the emulsion to obtain an oil-in-water emulsion, and performing evaporation, filtering, washing and drying treatment on the oil-in-water emulsion to obtain the core-shell type nano thermite.

This invention relates to the field of detonator drying technology, and in particular to a fully automatic intelligent detonator drying line, comprising a top rail, a feeding section, a ground rail, a forklift section, at least one drying chamber, an automatic temperature control system, and a discharging section. The feeding section receives several drying trays transported to a designated position by the top rail and pushes the drying trays sequentially onto the drying rack. The forklift section is mounted on the ground rail and is used to transport the drying rack into the drying chamber for drying and to remove the drying rack and transport it to the discharging section. The discharging section pushes the drying trays in the drying rack sequentially onto the conveyor belt. The forklift section is located between the drying chamber and the discharging and feeding sections. The drying chamber is equipped with a door that opens vertically, and a locking cylinder is installed on the outer wall of the chamber. The locking cylinder is fixed to the outer wall of the chamber, and its power end is installed on the door. This invention addresses the technical problems of low safety and large space occupation in existing detonator drying lines.

The invention describes a process for producing soluble salts of 5,5-azotetrazole (5,5-AT) by oxidation of 5-aminotetrazole with a soluble peroxodisulfate in a strongly alkaline environment. This compound is a precursor of the energetic component of non-toxic priming mixtures, 5,5- bis-hydrazino-tetrazole (BTH). BTH can be prepared by reduction of salts or solutions of 5,5-AT with ascorbic acid. 5,5-AT

The present invention discloses a primary detonator, whose structure includes a detonator shell, a tube groove, a third pressing charge layer, a second pressing charge layer, a first pressing charge layer, a paint layer, a through hole, a strengthening cap, a groove, and glass microspheres. The present invention has the following beneficial effects. By thickening the wall thickness of the detonator shell and increasing the pressing charge density of the primary charge, the initiation ability of the detonator is improved. At the same time, there is a groove on the detonator shell with glass microspheres adhered by paint. After the detonator explodes, the glass microspheres are shot into the explosive, forming bubbles that are stable and have a good physical sensitization effect, further improving the detonation ability of the detonator and making the detonator more conducive to detonating the explosive. By setting the contact surface between the second pressing charge layer and the third pressing charge layer as a conical groove, the contact area is increased and the reliability of initiation is improved. Compared with traditional detonators, the charge amounts of the priming explosive and the secondary explosive in the second pressing charge layer can be reduced, solving the problem that the shell disintegrates in advance due to excessive amounts of the priming explosive and the secondary charge, and the charge at the bottom of the detonator body cannot be normally initiated.