mhurhangee/patent-ind-claim-en huggingface dataset:
A case for removably receiving a separate and distinct mobile device having a front device surface, a rear device surface opposite the front device surface, and a periphery extending between the front device surface and the rear device surface of the mobile device, the case comprising: a frame comprising a frame base and a plurality of frame sides extending away from the frame base to define a frame inner surface ; and an elastomeric shell comprising a plurality of adjacent shell sides attached to each other to define a shell outer surface forming a plurality of outer projections disposed at approximately even intervals and outer troughs extending between respective ones of the outer projections, a shell inner surface forming a plurality of inner projections disposed at approximately even intervals, and a shell rim extending between the shell outer surface and the shell inner surface, the shell inner surface defining a pocket configured for receiving the mobile device, wherein each of the outer projections define respective outer projection extremities and each of the outer troughs define outer trough extremities , and wherein the frame is configured for surrounding the elastomeric shell such that the frame inner surface is in contact with the plurality of outer projection extremities . a frame comprising a frame base and a plurality of frame sides extending away from the frame base to define a frame inner surface ; and an elastomeric shell comprising a plurality of adjacent shell sides attached to each other to define a shell outer surface forming a plurality of outer projections disposed at approximately even intervals and outer troughs extending between respective ones of the outer projections, a shell inner surface forming a plurality of inner projections disposed at approximately even intervals, and a shell rim extending between the shell outer surface and the shell inner surface, the shell inner surface defining a pocket configured for receiving the mobile device, wherein each of the outer projections define respective outer projection extremities and each of the outer troughs define outer trough extremities , and wherein the frame is configured for surrounding the elastomeric shell such that the frame inner surface is in contact with the plurality of outer projection extremities .
Visual compensation device allowing observation along an optical axis (X) of observation with an optical correction of variable power, comprising: - a lens having, along the optical axis, a variable spherical power that depends on a first setting (Sv); and - an optical assembly generating, along the optical axis, a variable cylindrical correction that depends on at least one second setting (α 1 , α 2 ) applied to said optical assembly , - a module for receiving at least one setpoint (S, C, α) for said optical correction; - a determination module for determining the first setting (Sv) and the second setting (α 1 , α 2 ) depending on said setpoint (S, C, α) characterised in that the determination module is configured to determine the first and the second setting by means of a model taking into account the distance (e 2 ) separating said lens and said optical assembly . - a lens having, along the optical axis, a variable spherical power that depends on a first setting (Sv); and - an optical assembly generating, along the optical axis, a variable cylindrical correction that depends on at least one second setting (α 1 , α 2 ) applied to said optical assembly , - a module for receiving at least one setpoint (S, C, α) for said optical correction; - a determination module for determining the first setting (Sv) and the second setting (α 1 , α 2 ) depending on said setpoint (S, C, α)
Bearing device for supporting a shaft of a gas turbine engine , the bearing device comprising a bearing housing element , a first support disk which is mounted to the bearing housing element , first tilting pads , which are tiltably arranged one after another along a circumferential direction at the first support disk , a second support disk which is mounted to the bearing housing element spaced apart from the first support disk along an axial direction , second tilting pads , which are tiltably arranged one after another along the circumferential direction at the second support disk , wherein the first tilting pads are arranged with respect to a first thrust collar mounted to the shaft such that a first axial thrust is transferrable from the first thrust collar to the first tilting pads , and wherein the second tilting pads are arranged with respect to a second thrust collar mounted to the shaft such that a second axial thrust which is orientated in opposite direction with respect to the first axial thrust is transferrable from the second thrust collar to the second tilting pads , and wherein a first number of the first tilting pads is greater than the half of a second number of the second tilting pads but smaller than the second number of the second tilting pads , characterised in that the thrust capacity of the first tilting pads is larger than the thrust capacity of the second tilting pads , wherein the first tilting pads are unequally distributed onto the first support surface along the circumferential direction , and wherein the second tilting pads are equally distributed onto a second support surface of the second support disk along the circumferential direction .
A system, comprising: a sensor ; a legacy computing environment that is configured to: communicate with the sensor and process raw sensor data output; and transmit the processed sensor output to a network node over a network or via a trusted computing environment ; and the trusted computing environment configured to: receive the raw sensor data output directly from the sensor ; and transmit the raw sensor data output to an additional network node or the network node over the network . a sensor ; a legacy computing environment that is configured to: communicate with the sensor and process raw sensor data output; and transmit the processed sensor output to a network node over a network or via a trusted computing environment ; and communicate with the sensor and process raw sensor data output; and transmit the processed sensor output to a network node over a network or via a trusted computing environment ; and the trusted computing environment configured to: receive the raw sensor data output directly from the sensor ; and transmit the raw sensor data output to an additional network node or the network node over the network . receive the raw sensor data output directly from the sensor ; and transmit the raw sensor data output to an additional network node or the network node over the network .
Process for producing polyether alcohols by reaction of one or more alkylene oxides with one or more H-functional starter substances in a continuously operated reactor comprising flow channels at a temperature of 180°C to 250°C and a pressure of 60 to 150 bar in the presence of a basic, metal-containing catalyst, wherein the concentration of the catalyst reported as the metal content, based on the total amount of reaction mixture composed of alkylene oxide, H-functional starter substance and catalyst, is not more than 50 ppmw and the residence time of the reaction mixture in the reactor is from 15 to 120 minutes.
An interbody implant with a flexible surface comprising: a top vertebral engaging surface and a bottom vertebral engaging surface opposite the top vertebral engaging surface; and a first surface on one of the top vertebral engaging surface and the bottom vertebral engaging surface, the first surface including a flexible pattern defined by a plurality of segments including a first segment and a second segment, wherein the first segment includes a first non-linear shape extending between a first end and a second end and the second segment includes a second non-linear shape extending between a first end and a second end, and wherein one of the first end and the second end of the first non-linear shape is interconnected with one of the first end and the second end of the second non-linear shape, and wherein when the interbody implant is disposed between vertebrae, the flexible pattern on the first surface deforms to adapt to the contours of a bone surface bearing thereon. a top vertebral engaging surface and a bottom vertebral engaging surface opposite the top vertebral engaging surface; and a first surface on one of the top vertebral engaging surface and the bottom vertebral engaging surface, the first surface including a flexible pattern defined by a plurality of segments including a first segment and a second segment, wherein the first segment includes a first non-linear shape extending between a first end and a second end and the second segment includes a second non-linear shape extending between a first end and a second end, and wherein one of the first end and the second end of the first non-linear shape is interconnected with one of the first end and the second end of the second non-linear shape, and wherein when the interbody implant is disposed between vertebrae, the flexible pattern on the first surface deforms to adapt to the contours of a bone surface bearing thereon. wherein the first segment includes a first non-linear shape extending between a first end and a second end and the second segment includes a second non-linear shape extending between a first end and a second end, and wherein one of the first end and the second end of the first non-linear shape is interconnected with one of the first end and the second end of the second non-linear shape, and wherein when the interbody implant is disposed between vertebrae, the flexible pattern on the first surface deforms to adapt to the contours of a bone surface bearing thereon.
Fluid for the cleaning of exhaust gases, especially from an internal combustion engine, said fluid being composed of a homogeneous aqueous solution of at least one reducing agent or reducing agent precursor for the elimination of nitrogen oxides NO x present in the exhaust gases, said aqueous solution comprising a metallic additive for catalysis of the oxidation of exhaust gas particles in a particle filter, said metallic additive being a basic metallic carbonate soluble in said aqueous solution, said at least one reducing agent or reducing agent precursor being a solution of urea in pure water and said basic metallic carbonate being selected from the list consisting of basic copper carbonate of chemical formula Cu 3 (CO 3 ) 2 (OH) 2 , basic copper carbonate of chemical formula Cu 2 (CO 3 )(OH) 2 , basic nickel carbonate of chemical formula Ni 2 (CO 3 )(OH) 2 , basic nickel copper carbonate of chemical formula (Cu,Ni) 2 (CO 3 )(OH) 2 , and preferably from the list consisting of basic copper carbonate of chemical formula Cu 3 (CO 3 ) 2 (OH) 2 and basic copper carbonate of chemical formula Cu 2 (CO 3 )(OH) 2 .
A compressible thermal interface material comprising: at least one polymer; at least one thermally conductive filler; and at least one phase change material, wherein the at least one phase change material includes a wax having a needle penetration value of at least 50 as determined at 25°C by ASTM D1321. at least one polymer; at least one thermally conductive filler; and at least one phase change material, wherein the at least one phase change material includes a wax having a needle penetration value of at least 50 as determined at 25°C by ASTM D1321.
System comprising a first housing part , a second housing part and a seal arrangement for sealing off a gap between the first housing part , which has a first end surface , and the second housing part , which has a second end surface situated opposite the first end surface , wherein the two end surfaces are flanges surfaces, bearing on one another, of a housing , and wherein a gap is defined between the end surfaces and an inner side is defined on one side and an outer side is defined on the oppositely situated side, wherein the seal arrangement is suitable for use with a relatively low media pressure on the outer side and with a relatively high media pressure on the inner side , wherein a first accommodating groove which extends along the gap and opens towards the second end surface and has a first outer flank which faces towards the outer side is arranged in the first housing part , characterized in that a second accommodating groove which is situated opposite the first accommodating groove and has a second outer flank which faces towards the outer side is arranged in the second housing part , comprising a sealing strip extending along the accommodating grooves , which has a flat configuration extending transversely to the end surfaces and bears against both outer flanks , furthermore comprising an elastic spiral strip , the central axis of which is arranged within the first accommodating groove and which extends along the first accommodating groove and exerts compressive force on the sealing strip .
A storage tank for storing gaseous hydrogen, the gas storage tank comprising a boundary wall having a laminate composite structure which includes a resin-rich layer forming an internal surface of the boundary wall, a glass-fibre composite layer in contact with the resin-rich layer, a first carbon fibre composite layer in contact with the glass-fibre composite layer on a side thereof remote from the resin-rich layer and a second carbon fibre composite layer in contact with the first carbon fibre composite layer on a side thereof remote from the glass fibre composite layer, characterised in that the ply thickness of the second carbon fibre composite layer is greater than the ply thickness of the first carbon fibre composite layer and the thickness of the second carbon fibre composite layer is greater than the thickness of the first carbon fibre composite layer.
A crane hook positioning method, comprising: obtaining current state information and a first image of a crane, the first image comprising a hook of the crane and a target to be positioned; determining relative position of the hook and the target to be positioned according to the first image, judging whether the relative position of the hook and the target to be positioned meets requirement, if so, completing hook positioning, otherwise, determining a hoisting path according to the current state information and the relative position of the hook and the target to be positioned; and controlling the crane to execute hook positioning according to the hoisting path, the target to be positioned comprising a hoisted object or a target in-position point, characterized in that , before determining the relative position of the hook and the target to be positioned according to the first image, the method further comprises: receiving a first instruction, selecting an identification area of the target to be positioned from the first image according to the first instruction, and performing contour extraction on an image of the target to be positioned in the identification area of the target to be positioned. obtaining current state information and a first image of a crane, the first image comprising a hook of the crane and a target to be positioned; determining relative position of the hook and the target to be positioned according to the first image, judging whether the relative position of the hook and the target to be positioned meets requirement, if so, completing hook positioning, otherwise, determining a hoisting path according to the current state information and the relative position of the hook and the target to be positioned; and controlling the crane to execute hook positioning according to the hoisting path, the target to be positioned comprising a hoisted object or a target in-position point,
An apparatus for operating on tissue, the apparatus comprising: (a) a body ; (b) a shaft assembly extending distally from the body; (c) an ultrasonic blade disposed at a distal end of the shaft assembly; and (d) an acoustic assembly , comprising: (i) an acoustic waveguide coupled with the blade, (ii) a piezoelectric transducer element , wherein the piezoelectric transducer element defines an inner diameter surface and an outer diameter surface , wherein the outer diameter surface includes an annular recess formed in the outer diameter surface, wherein the piezoelectric transducer element is configured to convert electrical power into ultrasonic vibrations when a voltage is applied to the inner diameter and outer diameter surfaces (iii) a fastener configured to secure the piezoelectric transducer element relative to the acoustic waveguide, and (iv) a coupling member configured to provide electrical continuity between the annular recess of the piezoelectric transducer element and a power source while permitting the piezoelectric transducer element to rotate relative to the body. (a) a body ; (b) a shaft assembly extending distally from the body; (c) an ultrasonic blade disposed at a distal end of the shaft assembly; and (d) an acoustic assembly , comprising: (i) an acoustic waveguide coupled with the blade, (ii) a piezoelectric transducer element , wherein the piezoelectric transducer element defines an inner diameter surface and an outer diameter surface , wherein the outer diameter surface includes an annular recess formed in the outer diameter surface, wherein the piezoelectric transducer element is configured to convert electrical power into ultrasonic vibrations when a voltage is applied to the inner diameter and outer diameter surfaces (iii) a fastener configured to secure the piezoelectric transducer element relative to the acoustic waveguide, and (iv) a coupling member configured to provide electrical continuity between the annular recess of the piezoelectric transducer element and a power source while permitting the piezoelectric transducer element to rotate relative to the body. (i) an acoustic waveguide coupled with the blade, (ii) a piezoelectric transducer element , wherein the piezoelectric transducer element defines an inner diameter surface and an outer diameter surface , wherein the outer diameter surface includes an annular recess formed in the outer diameter surface, wherein the piezoelectric transducer element is configured to convert electrical power into ultrasonic vibrations when a voltage is applied to the inner diameter and outer diameter surfaces (iii) a fastener configured to secure the piezoelectric transducer element relative to the acoustic waveguide, and (iv) a coupling member configured to provide electrical continuity between the annular recess of the piezoelectric transducer element and a power source while permitting the piezoelectric transducer element to rotate relative to the body.
A component (50;150) for a gas turbine engine, comprising: a platform (52;152) that axially extends between a leading edge (54;154) and a trailing edge (56;156) and circumferentially extends between a first mate face (58;158) and a second mate face (60;160); a trench (62;162) disposed on at least one of said first mate face (58;158) and said second mate face (60;160); and at least one cooling hole (64;164) disposed within said trench (62;162), and characterized in a cavity disposed at least partially inside an airfoil that extends from said platform, said at least one cooling hole in fluid communication with said cavity. a platform (52;152) that axially extends between a leading edge (54;154) and a trailing edge (56;156) and circumferentially extends between a first mate face (58;158) and a second mate face (60;160); a trench (62;162) disposed on at least one of said first mate face (58;158) and said second mate face (60;160); and at least one cooling hole (64;164) disposed within said trench (62;162), and characterized in a cavity disposed at least partially inside an airfoil that extends from said platform, said at least one cooling hole in fluid communication with said cavity.
A steel plate having high strength and high toughness comprising, by weight %: 0.02 to 0.10% of carbon (C), 0.6 to 1.7% of manganese (Mn), 0.5% or less of silicon (Si), 0.02% or less of phosphorus (P), 0.015% or less of sulfur (S), 0.005 to 0.050% of niobium (Nb), 0.005 to 0.08% of vanadium (V), a balance of iron (Fe) and inevitable impurities, wherein the thick steel plate optionally further comprises: one or more of 0.5% or less of Ni and 0.5% or less of Cr; and 0.05% or less of Ti, and having a microstructure composed of 85 to 95% of ferrite and 5 to 15% of pearlite by an area fraction, wherein a grain size of prior austenite measured according to ASTM E112 is ASTM grain size number of 10 or more and a grain size of ferrite is ASTM grain size number of 9 or more, wherein the microstructure is observed using a microscope at a point of 1/4t, where, t is thickness in mm, wherein the steel plate has an impact toughness of 300J or more at -70°C, wherein impact toughness is evaluated using a Charpy V-Notch test with a proportional specimen of L 0 =5.65√S 0 for total thickness, where L 0 is an original gauge length, and S 0 is an original cross-sectional area; and wherein the thickness of the steel plate is 15 to 75 mm. and having a microstructure composed of 85 to 95% of ferrite and 5 to 15% of pearlite by an area fraction, wherein a grain size of prior austenite measured according to ASTM E112 is ASTM grain size number of 10 or more and a grain size of ferrite is ASTM grain size number of 9 or more, wherein the microstructure is observed using a microscope at a point of 1/4t, where, t is thickness in mm, wherein the steel plate has an impact toughness of 300J or more at -70°C, wherein impact toughness is evaluated using a Charpy V-Notch test with a proportional specimen of L 0 =5.65√S 0 for total thickness, where L 0 is an original gauge length, and S 0 is an original cross-sectional area; and wherein the thickness of the steel plate is 15 to 75 mm.
A space structure comprising: a solar power generation paddle comprising: - a blanket; - an extension mast having a function of storing, by taking up, the blanket into a roll, and a function of extending the blanket; - a plurality of solar battery cells disposed on one surface of the blanket; - a plurality of thermoelectric conversion elements disposed on the other surface of the blanket; and - a plurality of heat dissipation members disposed on surfaces of the thermoelectric conversion elements which are opposite to surfaces near the blanket, along an extending direction of the extension mast; wherein the space structure further comprises a structure body to which the solar power generation paddle is attached. a solar power generation paddle comprising: - a blanket; - an extension mast having a function of storing, by taking up, the blanket into a roll, and a function of extending the blanket; - a plurality of solar battery cells disposed on one surface of the blanket; - a plurality of thermoelectric conversion elements disposed on the other surface of the blanket; and - a plurality of heat dissipation members disposed on surfaces of the thermoelectric conversion elements which are opposite to surfaces near the blanket, along an extending direction of the extension mast; - a blanket; - an extension mast having a function of storing, by taking up, the blanket into a roll, and a function of extending the blanket; - a plurality of solar battery cells disposed on one surface of the blanket; - a plurality of thermoelectric conversion elements disposed on the other surface of the blanket; and - a plurality of heat dissipation members disposed on surfaces of the thermoelectric conversion elements which are opposite to surfaces near the blanket, along an extending direction of the extension mast; wherein the space structure further comprises a structure body to which the solar power generation paddle is attached.