序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
121 Composite bit US62358723 1923-03-08 US1519135A 1924-12-16 HANSEN CHARLES C
122 Drill-bit. US1913775356 1913-06-23 US1133162A 1915-03-23 MCALLISTER GEORGE WATSON
123 Drilling apparatus. US1909520930 1909-10-04 US994866A 1911-06-13 MUHLEISEN HENRY W
124 유연 폐쇄부재를 포함하는 토양 시료 채취기 KR1020120026339 2012-03-15 KR101227871B1 2013-01-31 양동윤; 김주용; 김진관; 이진영; 김진철; 카츠키코우타
PURPOSE: A soil sampler including a compliant closure component is provided to prevent the distortion of a soil sample including the compression and twisting of the soil sample collected by the soil sampler due to the blow or the rotating power, to collect the exact soil structure maintained without any change. CONSTITUTION: A soil sampler including a compliant closure component comprises a square outer tube(100), a square inner tube(200), the compliant closure component(300), a connection wire(400), and a saw blade(500). The square inner tube is installed with a space inside the square outer pipe. The compliant closure component with an up-and-down movability is inserted into a separated space in between one side of the square outer tube and one square inner tube. The connection wire is connected to the lower end surface of the compliant closure component, and extended to the separated space in between the other side corresponding to the square inner tube and the other side corresponding to the square inner tube to protrude over the top of the separate space. The saw blade is rotatably installed along the outer periphery of the lower end of the square outer tube.
125 수직형 해저 퇴적물 시료 채취기 KR1020110103352 2011-10-11 KR101227915B1 2013-01-30 이진영; 홍세선; 김주용; 양동윤; 이상헌
PURPOSE: A vertical soil sampler for seabed is provided to accurately analyze the physical and chemical properties of soil by sampling soil without distortion. CONSTITUTION: A vertical soil sampler for seabed comprises a first outer tube(200), a second outer tube(100), a support frame, and multiple anchors. The first outer tube comprises an inclined rotary blade. The second outer tube is located on the outer side of the first outer tube and has bearings(110) and connection members(120). The bearings are coupled to the first outer tube. When the first outer tube is rotated, vertical force is transferred to the second outer tube. The support frame supports the first outer tube. The anchors are connected to the support frame using a chain.
126 수직형 퇴적물 시료 채취기 KR1020110103350 2011-10-11 KR101185762B1 2012-09-25 이진영; 홍세선; 임재수; 남욱현; 김진관
PURPOSE: A vertical deposit sampler is provided to accurately analyze the physical and chemical properties of soil by gathering soil sample without a structural change. CONSTITUTION: A vertical deposit sampler comprises a first outer pipe(200), a second outer pipe(100), and a soil gathering pipe. A rotary blade(210) is formed on the inner surface of the first outer pipe. The second outer pipe is rotated by a connection member(120) connected to a bearing(110), and the first outer pipe is vertically transferred to the inside soil. The soil gathering pipe is inserted into the second outer pipe and gathers soil.
127 촉매 물질이 고갈된 작업면을 갖는 고용적 밀도의다결정성 다이아몬드 KR1020037004062 2001-09-05 KR100871594B1 2008-12-02 그리핀,나이젤데니스; 휴즈,피터레이몬드
본원은, 충격 강도의 손실이 없이 상당히 증진된 내마모성을 갖는 다이아몬드상 요소 또는 다결정성 다이아몬드에 관련한 것이다. 이들 요소는 고온의, 고압(HTHP) 프로세스의 바인더-촉매 물질로서 형성된다. PCD 요소는, 87% 이상의 다이아몬드 용적 밀도를 갖는 연속적 다이아몬드 매트릭스를 형성하는 다수의 결합 다이아몬드 또는 다이아몬드상 결정을 갖춘 보디(body)를 구비한다. 다이마몬드 크리스탈 사이의 틈새(interstices)는 촉매 물질을 함유하는 연속적 틈새 매트릭스를 형성한다. 상기 다이아몬드 매트릭스 테이블은 HTHP 프로세스 도중에 촉매 물질을 함유하는 금속 기재(substrate)로서 형성되어 이와 일체로 결합된다. 상기 다이아몬드 매트릭스 보디는 작업면을 구비하는 바, 이 작업면에 인접한 상기 보디에서의 틈새 매트릭스의 일부가 촉매-프리 물질이고, 잔여 틈새 매트릭스가 촉매 물질을 함유하는 작업면이다. 통상, 이 다이아몬드 매트릭스 테이블의 보디의 대략 70% 이하가 프리-촉매 물질이다.
128 촉매 물질이 고갈된 면을 갖는 다결정 다이아몬드 KR1020037004061 2001-06-25 KR1020030055267A 2003-07-02 그리핀,나이젤데니스; 휴즈,피터레이몬드
본 발명은 충격 세기의 손실없이 열적 퇴하에 매우 개선된 저항력을 갖는 초경질 다결정 다이아몬드 또는 다이아몬드형 요소를 제공한다. 공동적으로 명명된 PCD 요소들은 고온, 고압 프로세스에서 다인더-촉매 물질로 형성된다. PCD 요소는 촉매 물질을 포함하는 적어도 하나의 연속적인 틈새 매트릭스를 형성하는 다이아몬드 크리스탈간에 틈새와 적어도 하나의 연속적인 다이아몬드 매트릭스를 형성하는 다수의 부분 결합형 다이아몬드 또는 다이아몬드형 크리스탈을 구비한다. 요소는 작업면과 보디를 구비하며, 작업면에 인접한 보디에서 틈새 매트릭스의 일부분은 대체로 촉매 물질이 없으며, 나머지 틈새 매트릭스는 촉매 물질을 포함한다. 이는 절삭 어플리케이션에 더 높은 마멸 저항, 히트 싱크 어플리케이션에서 더높은 열 전달 용량으로 변환시키고, 중공 다이, 인덴터, 툴 심축, 및 마멸 요소를 포함하는 다수의 다른 어플리케이션에서 이점을 갖는다.
129 POLYCRYSTALLINE DIAMOND COMPACTS, CUTTING ELEMENTS AND EARTH-BORING TOOLS INCLUDING SUCH COMPACTS, AND METHODS OF FORMING SUCH COMPACTS AND EARTH-BORING TOOLS EP11777900 2011-04-26 EP2564010A4 2016-07-06 DIGIOVANNI ANTHONY A; GOUDEMOND IAIN P
Methods of forming a polycrystalline diamond compact for use in an earth-boring tool include forming a body of polycrystalline diamond material including a first material disposed in interstitial spaces between inter-bonded diamond crystals in the body, removing the first material from interstitial spaces in a portion of the body, selecting a second material promoting a higher rate of degradation of the polycrystalline diamond compact than the first material under similar elevated temperature conditions and providing the second material in interstitial spaces in the portion of the body. Methods of drilling include engaging at least one cutter with a formation and wearing a second region of polycrystalline diamond material comprising a second material faster than the first region of polycrystalline diamond material comprising a first material. Polycrystalline diamond compacts and earth-boring tools including such compacts are also disclosed.
130 POLYCRYSTALLINE DIAMOND COMPACTS, CUTTING ELEMENTS AND EARTH-BORING TOOLS INCLUDING SUCH COMPACTS, AND METHODS OF FORMING SUCH COMPACTS AND EARTH-BORING TOOLS EP11777900.9 2011-04-26 EP2564010A2 2013-03-06 DIGIOVANNI, Anthony,A.; GOUDEMOND, Iain, P.
Methods of forming a polycrystalline diamond compact for use in an earth-boring tool include forming a body of polycrystalline diamond material including a first material disposed in interstitial spaces between inter-bonded diamond crystals in the body, removing the first material from interstitial spaces in a portion of the body, selecting a second material promoting a higher rate of degradation of the polycrystalline diamond compact than the first material under similar elevated temperature conditions and providing the second material in interstitial spaces in the portion of the body. Methods of drilling include engaging at least one cutter with a formation and wearing a second region of polycrystalline diamond material comprising a second material faster than the first region of polycrystalline diamond material comprising a first material. Polycrystalline diamond compacts and earth-boring tools including such compacts are also disclosed.
131 DRILL BIT WITH CONTINUOUSLY SHARP EDGE CUTTING ELEMENTS EP09821087.5 2009-10-13 EP2342417A1 2011-07-13 WELCH, Robert, M.; MCCLAIN, Eric, E.; SINOR, L., Allen
A method of optimizing drill bit design and an optimized drill bit for drilling a well into an earth formation comprising a bit body; a number of blades spaced around the bit body, each blade having a curved outer edge and a forward face; a first row of cutter pockets recessed into the face along the outer edge of each blade; a second group of cutter pockets recessed into the face of each blade offset from the first row; and a plurality of cutting elements, each cutting element being brazed into a different one of the cutter pockets.
132 HIGH VOLUME DENSITY POLYCRYSTALLINE DIAMOND WITH WORKING SURFACES DEPLETED OF CATALYZING MATERIAL EP01965404.5 2001-09-05 EP1318969B1 2011-04-27 GRIFFIN, Nigel, Dennis; HUGHES, Peter, Raymond
Disclosed is a polycrystalline diamond or diamond-like element with greatly improved wear resistance without loss of impact strength. These elements are formed with a binder-catalyzing material in a high-temperature, high-pressure (HTHP) process. The PCD element has a body with a plurality of bonded diamond or diamond-like crystals forming a continuous diamond matrix that has a diamond volume density greater than 85 %. Interstices among the diamond crystals form a continuous interstitial matrix containing a catalyzing material. The diamond matrix table is formed and integrally bonded with a metallic substrate containing the catalyzing material during the HTHP process. The diamond matrix body has a working surface, where a portion of the interstitial matrix in the body adjacent to the working surface is substantially free of the catalyzing material, and the remaining interstitial matrix contains the catalyzing material. Typically, less than about 70 % of the body of the diamond matrix table is free of the catalyzing material.
133 POLYCRYSTALLINE DIAMOND WITH A SURFACE DEPLETED OF CATALYZING MATERIAL EP01940727.9 2001-06-25 EP1324960B1 2009-11-25 GRIFFIN, Nigel, Dennis Haverhill; HUGHES, Peter, Raymond
The present invention provides a superhard polycrystalline diamond or diamond-like element with greatly improved resistance to thermal degradation without loss of impact strength. Collectively called PCD elements, these elements are formed with a binder-catalyzing material in a high-temperature, high-pressure process. The PCD element has a plurality of partially bonded diamond or diamond-like crystals forming at least one continuous diamond matrix, and the interstices among the diamond crystals forming at least one continuous interstitial matrix containing a catalyzing material. The element has a working surface and a body, where a portion of the interstitial matrix in the body adjacent to the working surface is substantially free of the catalyzing material, and the remaining interstitial matrix contains the catalyzing material. This translates to higher wear resistance in cutting applications, higher heat transfer capacity in heat sink applications, and has advantages in numerous other applications including hollow dies, indentors, tool mandrels, and wear elements.
134 Rotary drill bit EP01307636.9 2001-09-07 EP1191000B1 2004-06-09 Hughes, Peter Raymond; Griffin, Nigel Dennis; Matthias, Terry R.
135 HIGH VOLUME DENSITY POLYCRYSTALLINE DIAMOND WITH WORKING SURFACES DEPLETED OF CATALYZING MATERIAL EP01965404.5 2001-09-05 EP1318969A1 2003-06-18 GRIFFIN, Nigel, Dennis; HUGHES, Peter, Raymond
Disclosed is a polycrystalline diamond or diamond-like element with greatly improved wear resistance without loss of impact strength. These elements are formed with a binder-catalyzing material in a high-temperature, high-pressure (HTHP) process. The PCD element has a body with a plurality of bonded diamond or diamond-like crystals forming a continuous diamond matrix that has a diamond volume density greater than 85 %. Interstices among the diamond crystals form a continuous interstitial matrix containing a catalyzing material. The diamond matrix table is formed and integrally bonded with a metallic substrate containing the catalyzing material during the HTHP process. The diamond matrix body has a working surface, where a portion of the interstitial matrix in the body adjacent to the working surface is substantially free of the catalyzing material, and the remaining interstitial matrix contains the catalyzing material. Typically, less than about 70 % of the body of the diamond matrix table is free of the catalyzing material.
136 OUTIL DE FORAGE ET/OU DE CAROTTAGE EP97949846.6 1997-12-16 EP0944765B1 2003-02-26 LAMINE, Etienne; DESMETTE, Sebastian; JOSSE, Cécile
A drilling and/or coring tool intended for use particularly oil drilling and/or coring, comprising a body (2) with a substantially cylindrical peripheral surface (3) and an underside (4), as well as blades (5) extending from the underside (4) to the peripheral surface (3). Each of the blades has a leading edge (6) and, if applicable, cutting elements of PDC (7) located in at least one central area (15A) of the underside (4). The longitudinal axes of these elements are disposed at right angles to the rotation axis of the tool (1). Outside of the central area (15A) are situated the following: cutting elements that are secondary and/or made of PDC (10), each with a cutting-edge (8) and which together form the leading edge (6) of the blade (5). The longitudinal axis of these elements is at right angles to the rotation axis. At least one associated cutting element (10A) is located to the reat of at least one of the secondary and/or PDC cutting elements (10) and has a transversal portion of the same shape as that of the secondary or PDC cutting element (10), at least for the portion projecting over the blade (5). The associated cutting element (10) is disposed on the same blade (5).
137 Earth roller dril bit with cutting structure EP97113516.5 1997-08-05 EP0823535A3 2002-10-09 Scott, Danny E.; Pessier, Rudolf Carl Otto

An earth-boring bit has a bit body and at least one cutter rotatably secured to the bit body. The cutter has a cutter shell surface including a gage surface and a heel surface. A plurality of cutting elements inserts are arranged in generally circumferential rows on the cutter. At least one scraper cutting element is secured at least partially to the heel surface of the cutter. The scraper cutting element includes an outermost surface, generally aligned with the gage surface of the cutter, that defines a plow edge or point for shearing engagement with the sidewall of the borehole while redirecting cuttings up the borehole.

138 Rotary drill bit design method EP01307739.1 2001-09-11 EP1191001A3 2002-04-03 Griffin, Nigel Dennis; Hughes, Peter Raymond; Matthias, Terry R.

A method for use in designing rotary drill bits comprises determining locations in which cutters are to be provided, determining likely wear rates for cutters positioned at those locations, and using the likely wear rates to chose between relatively high and relatively low wear rate cutters for each location. The cutters all have substantially the same impact toughness.

139 Rotary drill bit EP01307636.9 2001-09-07 EP1191000A3 2002-04-03 Hughes, Peter Raymond; Griffin, Nigel Dennis; Matthias, Terry R.

A rotary drill bit includes cutters arranged in a series of concentric rings, the cutters of one of the rings having a different wear resistance to the cutters of another of the rings with the result that the stability of the drill bit improves with wear. Although the wear resistance is different, the cutters have substantially the same impact toughness.

140 Machining of polycrystalline diamond EP01307316.8 2001-08-29 EP1190999A2 2002-03-27 Griffin, Nigel Dennis; Hughes, Peter Raymond

A polycrystalline diamond material including a matrix of interstices containing a catalysing and a volume close to a working surface thereof substantially free of catalysing material is treated to render the polycrystalline diamond electrically conductive. In one embodiment, the treatment comprises applying a conductive material layer to a surface of the diamond.

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