| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 21 | SYSTEM FOR FRACTURING AN UNDERGROUND GEOLOGIC FORMATION | EP13775966 | 2013-01-14 | EP2802736A4 | 2015-08-19 | SEITZ GERALD J; BRONISZ LAWRENCE E; TAPPAN BRYCE C; MACE JONATHAN L |
| Detonation control modules and detonation control circuits are provided herein. A trigger input signal can cause a detonation control module to trigger a detonator. A detonation control module can include a timing circuit, a light-producing diode such as a laser diode, an optically triggered diode, and a high-voltage capacitor. The trigger input signal can activate the timing circuit. The timing circuit can control activation of the light-producing diode. Activation of the light-producing diode illuminates and activates the optically triggered diode. The optically triggered diode can be coupled between the high-voltage capacitor and the detonator. Activation of the optically triggered diode causes a power pulse to be released from the high-voltage capacitor that triggers the detonator. | ||||||
| 22 | EXPLOSIVE ASSEMBLY AND METHOD | EP13773074 | 2013-01-14 | EP2802735A4 | 2015-08-19 | MACE JONATHAN L; TAPPAN BRYCE C |
| Detonation control modules and detonation control circuits are provided herein. A trigger input signal can cause a detonation control module to trigger a detonator. A detonation control module can include a timing circuit, a light-producing diode such as a laser diode, an optically triggered diode, and a high-voltage capacitor. The trigger input signal can activate the timing circuit. The timing circuit can control activation of the light-producing diode. Activation of the light-producing diode illuminates and activates the optically triggered diode. The optically triggered diode can be coupled between the high-voltage capacitor and the detonator. Activation of the optically triggered diode causes a power pulse to be released from the high-voltage capacitor that triggers the detonator. | ||||||
| 23 | Use of post-blast markers in the mining of mineral deposits | EP14200719.4 | 2008-05-26 | EP2889572A2 | 2015-07-01 | Spathis, Alexander Theofile; Dare-Bryan, Peter Conran; Appleby, Rodney Wayne; Goodridge, Richard John |
A method of mining a mineral deposit, including: |
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| 24 | SYSTEM FOR FRACTURING AN UNDERGROUND GEOLOGIC FORMATION | EP13775966.8 | 2013-01-14 | EP2802736A1 | 2014-11-19 | SEITZ, Gerald, J.; BRONISZ, Lawrence, E.; TAPPAN, Bryce, C.; MACE, Jonathan, L. |
| Detonation control modules and detonation control circuits are provided herein. A trigger input signal can cause a detonation control module to trigger a detonator. A detonation control module can include a timing circuit, a light-producing diode such as a laser diode, an optically triggered diode, and a high-voltage capacitor. The trigger input signal can activate the timing circuit. The timing circuit can control activation of the light-producing diode. Activation of the light-producing diode illuminates and activates the optically triggered diode. The optically triggered diode can be coupled between the high-voltage capacitor and the detonator. Activation of the optically triggered diode causes a power pulse to be released from the high-voltage capacitor that triggers the detonator. | ||||||
| 25 | USE OF POST-BLAST MARKERS IN THE MINING OF MINERAL DEPOSITS | EP08756862 | 2008-05-26 | EP2153163A4 | 2013-03-06 | SPATHIS ALEXANDER THEOFILE; DARE-BRYAN PETER CONRAN; APPLEBY RODNEY WAYNE; GOODRIDGE RICHARD JOHN |
| 26 | EXPLOSIVE CARTRIDGE | EP05711154.4 | 2005-03-02 | EP1725827B1 | 2011-08-17 | BENGTSSON, Jan-Åke |
| An explosive cartridge includes a substantially cylindrical sleeve (2) having an end wall (6) sealing a first end of the sleeve, an end unit (3) inserted in the sleeve to a certain depth in a second end of the sleeve, said end unit having an inner side (4) facing the interior of the sleeve and an outer side (5) on the opposite side of the end unit, a chamber (7) in the sleeve between said end wall and said inner side, said chamber being filled with a blasting agent (8), a channel (10) extending through the end unit between an outer mouth (11) and an inner mouth (12), said channel comprising a seat (13) for a priming cartridge (14), and a priming cartridge accommodated in the seat, said priming cartridge containing a detonating explosive for the firing of the blasting agent in said chamber. At least one spacing member (20), protruding in the axial direction, is provided on the outer side of the end wall (6) in the first end of the explosive cartridge and/or on the end unit in the second end of the explosive cartridge, such that an intermediate space (28) is formed between the outer side (5) of a first, lower explosive cartridge and the under side of the end wall of a second, upper explosive cartridge resting on the first explosive cartridge, when the two cartridges are entered in a drill hole (24) in order to be detonated, and at least one passage (21) is provided in the radial direction, passing said spacing member, allowing communication between said intermediate space and the surrounding space (27) in the drill hole. | ||||||
| 27 | Firing system for a perforating gun including an exploding foil detonator | EP94401941.3 | 1994-09-01 | EP0651229A2 | 1995-05-03 | Lerche Nolan C.; Aseltine Clifford L.; Voreck, Wallace E. Jr |
A firing head for a firing system adapted for use in a perforating gun includes an outer pressure bulkhead housing which simultaneously conducts two separate and independent currents: a wireline current from a wireline and a return current from an initiator embodied in the firing head. A fire set circuit provides a discharge pulse to the firing head, and a wireline conductor cable provides a wireline current to the fire set circuit. The firing head includes an outer pressure bulkhead housing adapted for conducting the wireline current from the wireline conductor cable to the fire set circuit, and an exploding foil initiator (EFI) responsive to the discharge pulse from the fire set circuit for initiating the detonation of a secondary explosive. The discharge pulse energizing the firing head passes through the exploding foil initiator (EFI) and emerges from the EFI as an EFI return current. As a result, the outer pressure bulkhead housing of the firing head conducts two separate and independent currents: the EFI return current from the EFI to a ground potential, and the wireline current from the wireline conductor cable to the fire set circuit. |
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| 28 | Explosive matrix assembly | US14938271 | 2015-11-11 | US09776932B2 | 2017-10-03 | Jon K. Mitchell |
| An explosive matrix assembly of the present disclosure has a single detonating cord formed into a grid, and the grid comprises a first plurality of detonating cord portions lying in a first plane and a second plurality of detonating cord portions lying in a second plane and the first plurality of detonating cord portions perpendicularly overlay the second plurality of detonating portions. Additionally, the explosive matrix assembly has at least one insensitive blasting agent coupled to the grid. | ||||||
| 29 | Explosive matrix assembly | US14938225 | 2015-11-11 | US09631903B2 | 2017-04-25 | Jon K. Mitchell |
| The present disclosure is an explosive matrix assembly that has a first single detonating cord formed into a first grid, and the first grid has a first plurality of detonating cord portions lying in a first plane and a second plurality of detonating cord portions lying in a second plane and the first plurality of detonating cord portions perpendicularly overlay the second plurality of detonating portions. Additionally, the matrix assembly has a second single detonating cord formed into a second grid, and the second grid has a third plurality of detonating cord portions lying in a third plane and a fourth plurality of detonating cord portions lying in a fourth plane and the third plurality of detonating cord portions perpendicularly overlay the fourth plurality of detonating portions. Further, the matrix assembly has a third single detonating cord formed into a third grid, and the third grid has a fifth plurality of detonating cord portions lying in a fifth plane and a sixth plurality of detonating cord portions lying in a sixth plane and the fifth plurality of detonating cord portions perpendicularly overlay the sixth plurality of detonating portions. The matrix assembly also has a first fastener coupling the first grid perpendicular to the second grid, a second fastener coupling the first grid perpendicular to the third grid, and a third fastener coupling the second grid perpendicular to the third grid thereby forming a partial cube. | ||||||
| 30 | System for fracturing an underground geologic formation | US14371696 | 2013-01-14 | US09593924B2 | 2017-03-14 | Jonathan L. Mace; Bryce C. Tappan; Gerald J. Seitz; Lawrence E. Bronisz |
| An explosive system for fracturing an underground geologic formation adjacent to a wellbore can comprise a plurality of explosive units comprising an explosive material contained within the casing, and detonation control modules electrically coupled to the plurality of explosive units and configured to cause a power pulse to be transmitted to at least one detonator of at least one of the plurality of explosive units for detonation of the explosive material. The explosive units are configured to be positioned within a wellbore in spaced apart positions relative to one another along a string with the detonation control modules positioned adjacent to the plurality of explosive units in the wellbore, such that the axial positions of the explosive units relative to the wellbore are at least partially based on geologic properties of the geologic formation adjacent the wellbore. | ||||||
| 31 | DETONATION COMMAND AND CONTROL | US15167777 | 2016-05-27 | US20160349029A1 | 2016-12-01 | Jonathan Lee Mace; Gerald J. Seitz; John A. Echave; Pierre-Yves Le Bas |
| The detonation of one or more explosive charges and propellant charges by a detonator in response to a fire control signal from a command and control system comprised of a command center and instrumentation center with a communications link therebetween. The fire control signal is selectively provided to the detonator from the instrumentation center if plural detonation control switches at the command center are in a fire authorization status, and instruments, and one or more interlocks, if included, are in a ready for firing status. The instrumentation and command centers are desirably mobile, such as being respective vehicles. | ||||||
| 32 | Explosive matrix assembly | US14937382 | 2015-11-10 | US09506734B2 | 2016-11-29 | Jon K. Mitchell |
| An explosive matrix assembly of the present disclosure has a single detonating cord formed into a grid, and the grid has a first plurality of detonating cord portions lying in a first plane and a second plurality of detonating cord portions lying in a second plane and the first plurality of detonating cord portions perpendicularly overlay the second plurality of detonating portions, wherein the overlay creates a plurality of crossings between the first plurality of detonating cord portions and the second plurality of detonating cord portions. Additionally, the explosive matrix assembly has one or more point explosives coupled to the crossings for initiation of an explosion. | ||||||
| 33 | Detonation control | US14370207 | 2013-01-14 | US09476685B2 | 2016-10-25 | Jonathan L. Mace; Gerald J. Seitz; Lawrence E. Bronisz |
| Detonation control modules and detonation control circuits are provided herein. A trigger input signal can cause a detonation control module to trigger a detonator. A detonation control module can include a timing circuit, a light-producing diode such as a laser diode, an optically triggered diode, and a high-voltage capacitor. The trigger input signal can activate the timing circuit. The timing circuit can control activation of the light-producing diode. Activation of the light-producing diode illuminates and activates the optically triggered diode. The optically triggered diode can be coupled between the high-voltage capacitor and the detonator. Activation of the optically triggered diode causes a power pulse to be released from the high-voltage capacitor that triggers the detonator. | ||||||
| 34 | Explosive matrix assembly | US13786682 | 2013-03-06 | US09395168B2 | 2016-07-19 | Jon K. Mitchell |
| An explosive matrix includes a grid structure formed from a single length of detonating cord with one set of spaced-apart detonating cord sections lying in one plane that perpendicularly overlays a second set of spaced-apart sections lying in a second plane such that at each section crossing location the crossing consists of no more than two perpendicular sections of detonating cord. | ||||||
| 35 | Detonator roll call | US14411885 | 2013-07-01 | US09377280B2 | 2016-06-28 | Craig Charles Schlenter |
| A detonator roll call method wherein each detonator is assigned a unique identifier and, at each detonator, in response to an enquiry signal to all the detonators a count is incremented and compared to the roll call identifier and, if the comparison is positive, a reply is sent by the detonator. | ||||||
| 36 | Explosive Matrix Assembly | US14937382 | 2015-11-10 | US20160131468A1 | 2016-05-12 | Jon K. Mitchell |
| An explosive matrix assembly of the present disclosure has a single detonating cord formed into a grid, and the grid has a first plurality of detonating cord portions lying in a first plane and a second plurality of detonating cord portions lying in a second plane and the first plurality of detonating cord portions perpendicularly overlay the second plurality of detonating portions, wherein the overlay creates a plurality of crossings between the first plurality of detonating cord portions and the second plurality of detonating cord portions. Additionally, the explosive matrix assembly has one or more point explosives coupled to the crossings for initiation of an explosion. | ||||||
| 37 | Detonation Command and Control | US14878969 | 2015-10-08 | US20160033248A1 | 2016-02-04 | Jonathan L. Mace; Gerald J. Seitz; John A. Echave; Pierre-Yves Le Bas |
| The detonation of one or more explosive charges and propellant charges by a detonator in response to a fire control signal from a command and control system comprised of a command center and instrumentation center with a communications link therebetween. The fire control signal is selectively provided to the detonator from the instrumentation center if plural detonation control switches at the command center are in a fire authorization status, and instruments, and one or more interlocks, if included, are in a ready for firing status. The instrumentation and command centers are desirably mobile, such as being respective vehicles. | ||||||
| 38 | Explosive matrix assembly tool | US13798887 | 2013-03-13 | US09234727B2 | 2016-01-12 | Jon K. Mitchell |
| An explosive matrix includes a grid structure formed from a single length of detonating cord with one set of spaced-apart detonating cord sections lying in one plane that perpendicularly overlays a second set of spaced-apart sections lying in a second plane such that at each section crossing location the crossing consists of no more than two perpendicular sections of detonating cord. A tool for forming the matrix includes a frame comprising four side members, each having identical castellated edges in which are defined a plurality of notches for receiving a section of detonating cord. | ||||||
| 39 | DETONATION CONTROL | US14370207 | 2013-01-14 | US20140366761A1 | 2014-12-18 | Jonathan L. Mace; Gerald J. Seitz; Lawrence E. Bronisz |
| Detonation control modules and detonation control circuits are provided herein. A trigger input signal can cause a detonation control module to trigger a detonator. A detonation control module can include a timing circuit, a light-producing diode such as a laser diode, an optically triggered diode, and a high-voltage capacitor. The trigger input signal can activate the timing circuit. The timing circuit can control activation of the light-producing diode. Activation of the light-producing diode illuminates and activates the optically triggered diode. The optically triggered diode can be coupled between the high-voltage capacitor and the detonator. Activation of the optically triggered diode causes a power pulse to be released from the high-voltage capacitor that triggers the detonator. | ||||||
| 40 | Surface Blasting Product | US13639556 | 2011-04-06 | US20130145950A1 | 2013-06-13 | Jarmo Uolevi Leppanen |
| A surface blasting product which includes a container, a receptacle which contains adhesive which is displaceable to adhere the container to a rock, and an explosive charge, inside the container, which can be ignited to fragment or displace the rock. | ||||||
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