mhurhangee/patent-ind-claim-en huggingface dataset:
An insulator for use with a vibration generating musical instrument and a first flat surface, wherein the insulator is configured to be disposed between the vibration generating musical instrument and the first flat surface, and configured to inhibit transmission of vibration between the vibration generating musical instrument and the first flat surface, the insulator comprising: - a lower structure member to be brought into contact with the first flat surface; - a cantilever spring member formed from a bent plate member, the cantilever spring member having one end attached to the lower structure member ; - a first wire having an upper end attached to the other end of the cantilever spring member ; - an upper structure member having an upper surface on which the vibration generating musical instrument is placeable, the upper structure member attached to a lower end of the first wire , the upper structure member suspended from the lower structure member through the cantilever spring member and the first wire ; and characterized in that the insulator comprises: - three or more second wires connecting the upper structure member and the lower structure member to each other in a horizontal direction, the three or more second wires being radially disposed so as to be equally spaced from each other in a circumferential direction such that a load point set at a center position of each of the upper structure member and the lower structure member is an axial center. - a lower structure member to be brought into contact with the first flat surface; - a cantilever spring member formed from a bent plate member, the cantilever spring member having one end attached to the lower structure member ; - a first wire having an upper end attached to the other end of the cantilever spring member ; - an upper structure member having an upper surface on which the vibration generating musical instrument is placeable, the upper structure member attached to a lower end of the first wire , the upper structure member suspended from the lower structure member through the cantilever spring member and the first wire ; and characterized in that the insulator comprises: - three or more second wires connecting the upper structure member and the lower structure member to each other in a horizontal direction, the three or more second wires being radially disposed so as to be equally spaced from each other in a circumferential direction such that a load point set at a center position of each of the upper structure member and the lower structure member is an axial center. - three or more second wires connecting the upper structure member and the lower structure member to each other in a horizontal direction, the three or more second wires being radially disposed so as to be equally spaced from each other in a circumferential direction such that a load point set at a center position of each of the upper structure member and the lower structure member is an axial center.
A racket comprising a frame , a grommet mounted on the frame and having a plurality of tubular portions , and a string forming a face , wherein each of the tubular portions has a through hole through which the string is passed, and the tubular portions include parallel movement tubular portions , wherein each through hole of the parallel movement tubular portions has a shape that mainly permits movement of the string in a direction parallel to the face , characterized in that the tubular portions further include vertical movement tubular portions , wherein each through hole of the vertical movement tubular portions has a shape that mainly permits movement of the string in a direction perpendicular to the face . each of the tubular portions has a through hole through which the string is passed, and the tubular portions include parallel movement tubular portions , wherein each through hole of the parallel movement tubular portions has a shape that mainly permits movement of the string in a direction parallel to the face ,
A turbofan of an air conditioning system comprising: a first shroud formed with an air inlet hole , the first shroud having a ring shape; a second shroud formed to be radially spaced outwards from the first shroud by a predetermined clearance so that an air passage (P) is formed between the first and second shrouds ; a hub to rotate about an axis thereof through a rotational shaft of a drive motor; and a plurality of blades formed to be spaced apart from one another by a predetermined clearance along a circumferential direction of the hub to guide air introduced through the air inlet hole in the circumferential direction of the hub , wherein each of the first and second shrouds is coupled with a portion of an upper surface of each blade , characterised in that the first shroud comprises a first guide portion to guide air introduced through the air inlet hole in an axial direction of the hub , and a second guide portion to guide air introduced through the air inlet hole in the circumferential direction of the hub , and wherein the second shroud comprises an extending portion corresponding to the first guide portion of the first shroud to define the air passage (P) along with the first guide portion , and an inducing portion corresponding to the second guide portion of the first shroud to define the air passage (P) along with the second guide portion , the inducing portion conducting air introduced into the air passage (P) in the circumferential direction of the hub . a first shroud formed with an air inlet hole , the first shroud having a ring shape; a second shroud formed to be radially spaced outwards from the first shroud by a predetermined clearance so that an air passage (P) is formed between the first and second shrouds ; a hub to rotate about an axis thereof through a rotational shaft of a drive motor; and a plurality of blades formed to be spaced apart from one another by a predetermined clearance along a circumferential direction of the hub to guide air introduced through the air inlet hole in the circumferential direction of the hub , wherein each of the first and second shrouds is coupled with a portion of an upper surface of each blade , characterised in that the first shroud comprises a first guide portion to guide air introduced through the air inlet hole in an axial direction of the hub , and a second guide portion to guide air introduced through the air inlet hole in the circumferential direction of the hub , and wherein the second shroud comprises an extending portion corresponding to the first guide portion of the first shroud to define the air passage (P) along with the first guide portion , and an inducing portion corresponding to the second guide portion of the first shroud to define the air passage (P) along with the second guide portion , the inducing portion conducting air introduced into the air passage (P) in the circumferential direction of the hub .
A management system comprising: a reception unit configured to receive first identification information for identifying an account and second identification information for identifying an external authentication apparatus , the account being allocated by the authentication apparatus and corresponding to a terminal , the first identification information and the second identification information being information sent from the authentication apparatus that authenticates the terminal ; and a management unit configured to permit the terminal to use a function corresponding to the second identification information among functions provided by the management system based on the second identification information received by the reception unit , the terminal specified by the first identification information and the second identification information. a reception unit configured to receive first identification information for identifying an account and second identification information for identifying an external authentication apparatus , the account being allocated by the authentication apparatus and corresponding to a terminal , the first identification information and the second identification information being information sent from the authentication apparatus that authenticates the terminal ; and a management unit configured to permit the terminal to use a function corresponding to the second identification information among functions provided by the management system based on the second identification information received by the reception unit , the terminal specified by the first identification information and the second identification information.
A polycrystalline diamond compact, comprising: a polycrystalline diamond table, at least an unleached portion of the polycrystalline diamond table including: a plurality of diamond grains defining a plurality of interstitial regions; a metal-solvent catalyst occupying at least a portion of the plurality of interstitial regions; and wherein the plurality of diamond grains and the metal-solvent catalyst collectively exhibit a coercivity of 115 Oersteds ("Oe") or more and a specific magnetic saturation of 15 Gauss·cm 3 /grams ("G·cm 3 /g") or less, the coercivity being measured according to ASTM B887-03 e1 and the specific magnetic saturation being measured according to ASTM B886-03 ; wherein the polycrystalline diamond table exhibits a thermal stability, as determined by a distance cut in a workpiece prior to failure without using coolant, in a vertical lathe test, of at least about 1300 m; a substrate including an interfacial surface that is bonded to the polycrystalline diamond table, the interfacial surface including a plurality of protrusions, a ratio of a surface area of the interfacial surface in the absence of the plurality of protrusions to a surface area of the interfacial surface with the plurality of protrusions being 0.650 to 0.950, the plurality of protrusions exhibiting an average surface relief height of 127 μm (0.005 inch) to 254 μm (0.01 inch) and the metal-solvent catalyst is present in an amount of 1 weight % to 6 weight %, and comprises cobalt, iron, nickel, or alloys thereof. a plurality of diamond grains defining a plurality of interstitial regions; a metal-solvent catalyst occupying at least a portion of the plurality of interstitial regions; and wherein the plurality of diamond grains and the metal-solvent catalyst collectively exhibit a coercivity of 115 Oersteds ("Oe") or more and a specific magnetic saturation of 15 Gauss·cm 3 /grams ("G·cm 3 /g") or less, the coercivity being measured according to ASTM B887-03 e1 and the specific magnetic saturation being measured according to ASTM B886-03 ; wherein the polycrystalline diamond table exhibits a thermal stability, as determined by a distance cut in a workpiece prior to failure without using coolant, in a vertical lathe test, of at least about 1300 m; a substrate including an interfacial surface that is bonded to the polycrystalline diamond table, the interfacial surface including a plurality of protrusions, a ratio of a surface area of the interfacial surface in the absence of the plurality of protrusions to a surface area of the interfacial surface with the plurality of protrusions being 0.650 to 0.950, the plurality of protrusions exhibiting an average surface relief height of 127 μm (0.005 inch) to 254 μm (0.01 inch) and the metal-solvent catalyst is present in an amount of 1 weight % to 6 weight %, and comprises cobalt, iron, nickel, or alloys thereof.
An ionomer dispersion comprising: a dispersion medium; and an ionomer solid in the dispersion medium, wherein the concentration of the ionomer solid in the ionomer dispersion is 20% by weight or more, and when the viscosity of the ionomer dispersion is measured using a rheometer while the shear rate is increasing from 0.001 s -1 to 1,000 s -1 and then decreasing from 1,000 s -1 to 0.001 s -1 , the viscosity ratio of the ionomer dispersion defined by the following Equation 1 is 1.7 or less: Viscosity ratio = η 2 / η 1 wherein η1 is a first viscosity of the ionomer dispersion, measured while the shear rate is increasing, when the shear rate is 1 s -1 , and η2 is a second viscosity of the ionomer dispersion, measured while the shear rate is decreasing, when the shear rate is 1 s -1 , wherein the viscosity ratio is measured according to the description. a dispersion medium; and an ionomer solid in the dispersion medium, wherein the concentration of the ionomer solid in the ionomer dispersion is 20% by weight or more, and when the viscosity of the ionomer dispersion is measured using a rheometer while the shear rate is increasing from 0.001 s -1 to 1,000 s -1 and then decreasing from 1,000 s -1 to 0.001 s -1 , the viscosity ratio of the ionomer dispersion defined by the following Equation 1 is 1.7 or less: Viscosity ratio = η 2 / η 1 wherein η1 is a first viscosity of the ionomer dispersion, measured while the shear rate is increasing, when the shear rate is 1 s -1 , and η2 is a second viscosity of the ionomer dispersion, measured while the shear rate is decreasing, when the shear rate is 1 s -1 , wherein the viscosity ratio is measured according to the description.
An image processing apparatus comprising: obtaining means configured to obtain a color saturation parameter which determines a degree of adjustment of color saturation of a captured image from an omnidirectional camera, wherein said captured image has an imaging range defined by a circle on an imaging plane ; calculation means configured to calculate a color saturation level correction parameter which determines a degree of saturation level correction processing based on the color saturation parameter and a position of a pixel included in the captured image, the calculation means being arranged to calculate the color saturation level correction parameter based on the distance that the pixel is separated from the center of the imaging plane of the imaging element, and the calculation means being arranged to calculate the color saturation level correction parameter further using information on a display method employed when the image is displayed in addition to the color saturation parameter and the position of the pixel; and processing means configured to perform the color saturation level correction processing on the captured image in accordance with the color saturation level correction parameter. obtaining means configured to obtain a color saturation parameter which determines a degree of adjustment of color saturation of a captured image from an omnidirectional camera, wherein said captured image has an imaging range defined by a circle on an imaging plane ; calculation means configured to calculate a color saturation level correction parameter which determines a degree of saturation level correction processing based on the color saturation parameter and a position of a pixel included in the captured image, the calculation means being arranged to calculate the color saturation level correction parameter based on the distance that the pixel is separated from the center of the imaging plane of the imaging element, and the calculation means being arranged to calculate the color saturation level correction parameter further using information on a display method employed when the image is displayed in addition to the color saturation parameter and the position of the pixel; and processing means configured to perform the color saturation level correction processing on the captured image in accordance with the color saturation level correction parameter.
A motion system for grouping articles moving along a conveyor in a longitudinal direction , comprising at least one pusher arranged along the conveyor , the at least one pusher being movable in a transverse direction , perpendicular to the longitudinal direction , to push a group of articles off the conveyor in the transverse direction , at least one article guide arranged along the conveyor , the at least one article guide being movable along the transverse direction to intersect between the articles , when the articles move along the conveyor , whereby the at least one article guide is movable to restrict movement of the group of articles in the longitudinal direction and to guide the movement of the group of articles in the transverse direction when being pushed by the at least one pusher , characterized in that the at least one article guide comprises a first article guide comprising a first guide element , a second guide element , and a linkage pivotally connected to the first and second guide elements , wherein the first article guide is movable from a retracted position (g 1 ) to an extended position (g 2 ) at which the linkage pivots to expand the first article guide in the longitudinal direction so that the first guide element moves to position a first group of articles at a first pusher position (p') and the second guide element moves to position a second group of articles at a second pusher position (p), upstream of the first pusher position (p') in the longitudinal direction . at least one pusher arranged along the conveyor , the at least one pusher being movable in a transverse direction , perpendicular to the longitudinal direction , to push a group of articles off the conveyor in the transverse direction , at least one article guide arranged along the conveyor , the at least one article guide being movable along the transverse direction to intersect between the articles , when the articles move along the conveyor , whereby the at least one article guide is movable to restrict movement of the group of articles in the longitudinal direction and to guide the movement of the group of articles in the transverse direction when being pushed by the at least one pusher , characterized in that the at least one article guide comprises a first article guide comprising a first guide element , a second guide element , and a linkage pivotally connected to the first and second guide elements , wherein the first article guide is movable from a retracted position (g 1 ) to an extended position (g 2 ) at which the linkage pivots to expand the first article guide in the longitudinal direction so that the first guide element moves to position a first group of articles at a first pusher position (p') and the second guide element moves to position a second group of articles at a second pusher position (p), upstream of the first pusher position (p') in the longitudinal direction .
A multi-carrier superposition method, comprising: superposing inputted carrier signals by: conducting multi-carrier filtering and frequency shifting processing on the inputted carrier signals; and superposing the carrier signals subjected to multi-carrier filtering and frequency shifting processing so as to generate a multi-carrier signal, and increasing the bit width of the multi-carrier signal after superposition so as to generate an increased bit width multi-carrier signal; conducting CFR processing on the increased bit width multi-carrier signal and then restoring the bit width to a value before the increase so as to generate a CFR processed multi-carrier signal; and conducting (S503) increase processing on the CFR processed multi-carrier signal so as to increase total power of the carrier signals. superposing inputted carrier signals by: conducting multi-carrier filtering and frequency shifting processing on the inputted carrier signals; and superposing the carrier signals subjected to multi-carrier filtering and frequency shifting processing so as to generate a multi-carrier signal, and increasing the bit width of the multi-carrier signal after superposition so as to generate an increased bit width multi-carrier signal; conducting multi-carrier filtering and frequency shifting processing on the inputted carrier signals; and superposing the carrier signals subjected to multi-carrier filtering and frequency shifting processing so as to generate a multi-carrier signal, and increasing the bit width of the multi-carrier signal after superposition so as to generate an increased bit width multi-carrier signal; conducting CFR processing on the increased bit width multi-carrier signal and then restoring the bit width to a value before the increase so as to generate a CFR processed multi-carrier signal; and conducting (S503) increase processing on the CFR processed multi-carrier signal so as to increase total power of the carrier signals.
A storage and/or transport system for a liquefied gas, including a container intended to be in contact with the liquefied gas, in which the container essentially consists of metal plates welded together in sealed manner, at least one of said metal plates being made of an alloy based on iron-manganese that contains, by weight: 25 .0% ≤ Mn ≤ 32 .0% 7 .0% ≤ Cr ≤ 14 .0% 0 ≤ Ni ≤ 2 .5% 0 .05% ≤ N ≤ 0 .30% 0 .1 ≤ Si ≤ 0 .5% optionally 0.010% ≤ rare earths ≤ 0.14% the remainder being iron and residual elements resulting from production, the residual elements including one or more of the following elements: carbon (C), aluminum (Al), selenium (Se), sulfur (S), phosphorus (P), oxygen (O), cobalt (Co), copper (Cu), molybdenum (Mo), tin (Sn), niobium (Nb), vanadium (V), titanium (Ti) and lead (Pb), the maximum contents being chosen in the following manner, by weight: C & 0.05% by weight AI & 0.02% by weight Se & 0.02% by weight S & 0.005% by weight P & 0.04% by weigh O & 0.005% by weight Co, Cu, Mo & 0.2% each by weight Sn, Nb, V, Ti & 0.02% each by weight Pb ≤ 0.001% by weight. optionally 0.010% ≤ rare earths ≤ 0.14% the remainder being iron and residual elements resulting from production, the residual elements including one or more of the following elements: carbon (C), aluminum (Al), selenium (Se), sulfur (S), phosphorus (P), oxygen (O), cobalt (Co), copper (Cu), molybdenum (Mo), tin (Sn), niobium (Nb), vanadium (V), titanium (Ti) and lead (Pb), the maximum contents being chosen in the following manner, by weight: C & 0.05% by weight AI & 0.02% by weight Se & 0.02% by weight S & 0.005% by weight P & 0.04% by weigh O & 0.005% by weight Co, Cu, Mo & 0.2% each by weight Sn, Nb, V, Ti & 0.02% each by weight Pb ≤ 0.001% by weight. C & 0.05% by weight AI & 0.02% by weight Se & 0.02% by weight S & 0.005% by weight P & 0.04% by weigh O & 0.005% by weight Co, Cu, Mo & 0.2% each by weight Sn, Nb, V, Ti & 0.02% each by weight Pb ≤ 0.001% by weight.
a method of pulling a single crystal of semiconductor material from a melt contained in a crucible, comprising pulling the single crystal in a phase in which an initial cone of the single crystal is formed until a phase in which pulling of a cylindrical portion of the single crystal is started, comprising measuring the diameter Dcr of the initial cone of the single crystal and calculating the change in diameter dDcr/dt; pulling the initial cone of the single crystal from the melt at a pulling speed vp(t) from a time t1 to a time t2 from which pulling of the cylindrical portion of the single crystal at a target diameter Dcrs is started, wherein at a predetermined course of the pulling speed vp(t) the difference Δt = t2 - t1 is changed by means of an iterative calculation process until the time t2 coincides with the target diameter Dcrs being reached.