mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a catalyst composition comprising: a) combining an over flocculated molecular sieve and a phosphorous compound, preferably an acidic phosphorous compound; and b) combining said over flocculated molecular sieve with a non-over flocculated molecular sieve; said non-over flocculated molecular sieve providing a viscosity of below 7,000 cPs in a sample slurry; and said over flocculated molecular sieve providing a viscosity of 7,000 cPs or higher in a sample slurry; 1000 g of said sample slurries being prepared by adding 244 grams of an aluminum chlorohydrate solution from Reheis Inc., Berkeley Heights, New Jersey (LOI: 75.1%) to 224.5 grams of de-ionized water and mixing using a Yamato Model 2100 homogenizer (Yamato Scientific America Inc., Orangeburg, New York) at 700 RPM for 5 minutes; adding 310 grams of the flocculated molecular sieve and mixing using Yamato mixer at 700 RPM for 10 minutes; then mixing using a Silverson L4RT-A high-shear mixer (from Silverson Machines Inc., East Longmeadow, MA) at 6000 RPM for 3 minutes; adding 221.5 grams of APS Ultrafine clay from Engelhard Corporation, Gordon, Georgia (LOI: 15.69%) while mixing using Yamato mixer at 700 RPM for 10 minutes, then mixing using a Silverson L4RT-A in-line mixer at 7500 RPM for 60 passes at a flow rate of 1500 g/min, and leaving the slurry to equilibrate at room temperature to 23-24 °C; and the viscosity of said sample slurries being measured at a temperature of 23-24 °C with a Brookfield DV-II + Pro Viscometer using a #6 spindle at 10 RPM shear rate. a) combining an over flocculated molecular sieve and a phosphorous compound, preferably an acidic phosphorous compound; and b) combining said over flocculated molecular sieve with a non-over flocculated molecular sieve;
Use of a nonspecific adsorption inhibitor for inhibiting adsorption of protein to an article, wherein the nonspecific adsorption inhibitor comprises a copolymer comprising a repeating unit represented by the following formula: wherein R 0 represents a hydrogen atom or a methyl group and Z represents a group represented by the following formula or: wherein R 1 and R 2 independently represent a hydrogen atom, an alkyl group having from 1 to 8 carbon atoms or an alkyl group having from 1 to 8 carbon atoms which is substituted with at least one group selected from a hydroxyl group, a carboxyl group, an alkoxy group, an acyloxy group and an alkoxycarbonyl group; wherein R 3 and R 4 independently represent single bond, methylene, methylene substituted with a hydroxyl group or carboxyl group, an alkylene group having from 2 to 7 carbon atoms or an alkylene group having from 2 to 7 carbon atoms substituted with a hydroxyl group or carboxyl group wherein total number of carbon atoms of R 3 and R 4 is from 4 to 10; wherein at least one of R 3 and R 4 may have an ether bond, and Y represents any one of a single bond, O and S and a repeating unit represented by the following formula: wherein R 5 represents a hydrogen atom or a methyl group and R 6 represents phenyl group or a group represented by -CO 2 R 7 wherein R 7 represents a substituted or unsubstituted alkyl group having from 1 to 12 carbon atoms, an alicyclic hydrocarbon or an aromatic hydrocarbon; wherein the aforementioned repeating unit is a structure derived from at least one monomer wherein its solubility in water is less than 20%; and wherein the article is coated by a method which comprises a step of allowing the article to contact with a solution comprising the nonspecific adsorption inhibitor of protein. wherein R 5 represents a hydrogen atom or a methyl group and R 6 represents phenyl group or a group represented by -CO 2 R 7 wherein R 7 represents a substituted or unsubstituted alkyl group having from 1 to 12 carbon atoms, an alicyclic hydrocarbon or an aromatic hydrocarbon; wherein the aforementioned repeating unit is a structure derived from at least one monomer wherein its solubility in water is less than 20%; and wherein the article is coated by a method which comprises a step of allowing the article to contact with a solution comprising the nonspecific adsorption inhibitor of protein.
A resource determining method, the method being performed by a terminal device and comprising: receiving downlink control information, DCI, from a network device, wherein the DCI is carried on a physical downlink control channel, PDCCH; and determining a resource of an uplink channel based on the DCI, wherein the resource of the uplink channel is used to send uplink information; wherein the uplink channel is a physical uplink control channel, PUCCH, and the PUCCH carries feedback information corresponding to a physical downlink shared channel, PDSCH, scheduled by using the DCI; and the determining a resource of an uplink channel based on the DCI comprises: determining a carrier on which the PUCCH is located; the method being characterized by: determining a resource of the PUCCH based on the carrier on which the PUCCH is located and the DCI; and wherein the determining a carrier on which the PUCCH is located comprises: when the DCI comprises second indication information, determining a carrier corresponding to a value of the second indication information as the carrier on which the PUCCH is located. receiving downlink control information, DCI, from a network device, wherein the DCI is carried on a physical downlink control channel, PDCCH; and determining a resource of an uplink channel based on the DCI, wherein the resource of the uplink channel is used to send uplink information; wherein the uplink channel is a physical uplink control channel, PUCCH, and the PUCCH carries feedback information corresponding to a physical downlink shared channel, PDSCH, scheduled by using the DCI; and the determining a resource of an uplink channel based on the DCI comprises: determining a carrier on which the PUCCH is located; the method being characterized by: determining a resource of the PUCCH based on the carrier on which the PUCCH is located and the DCI; and wherein the determining a carrier on which the PUCCH is located comprises: when the DCI comprises second indication information, determining a carrier corresponding to a value of the second indication information as the carrier on which the PUCCH is located. determining a resource of the PUCCH based on the carrier on which the PUCCH is located and the DCI; and wherein the determining a carrier on which the PUCCH is located comprises: when the DCI comprises second indication information, determining a carrier corresponding to a value of the second indication information as the carrier on which the PUCCH is located.
A stringer comprising: a first surface (702, 902); a second surface (704, 904) located opposite the first surface, the second surface to be coupled to a composite structure of an aircraft; an edge extending from the second surface toward the first surface; and a chamfer extending from the first surface to the edge at an angle (708, 908) relative to the first surface, characterized in that the angle (708, 908) is between twelve and eighteen degrees, and the stringer has a thickness (706, 906) of at least 0.10 inches (0.25cm) along the edge. a first surface (702, 902); a second surface (704, 904) located opposite the first surface, the second surface to be coupled to a composite structure of an aircraft; an edge extending from the second surface toward the first surface; and a chamfer extending from the first surface to the edge at an angle (708, 908) relative to the first surface, characterized in that the angle (708, 908) is between twelve and eighteen degrees, and the stringer has a thickness (706, 906) of at least 0.10 inches (0.25cm) along the edge.
Device for inspection and/or web observation of printed products produced by a printing machine, wherein the device is provided with a first camera that is directed to an inspection field to be checked and at least one further camera that is directed at least partially to an inspection field already observed by the first camera, characterised in that a higher spatially resolved recording of an inspection field section of the inspection field observed by the first camera is provided by the at least one further camera and lenses are provided on the cameras (48, 50), wherein the lenses are provided with fixed focal lengths.
A Method (P1, P2) for the non-destructive testing of an aeronautical part, by acquisition of stereoscopic images and determination of a three-dimensional model of the part, the part being delimited by a surface, said method implementing: a) a projection of a lighting on the surface by a first projector; b) an acquisition of a stereoscopic image of the surface by a first sensor and by a second sensor, arranged at two different locations; c) a detection of one or several specularities on each of the images of the sensors; the method being characterized in that it implements: d) an extinction of one or several portions of the lighting causing the specularity/specularities in the direction of the sensor(s); then e) an acquisition of a stereoscopic image of the surface by each of the sensors (1, 2); the operations a) to e) also being carried out by projecting a lighting on the surface by a second projector, the second projector being arranged at a different location from the first projector; the method implementing a determination of the three-dimensional model of the part from the stereoscopic images obtained during the acquisition e) under lighting of the first projector and from stereoscopic images obtained during the acquisition e) under lighting of the second projector, a first three-dimensional model of the part being determined from the images obtained during an acquisition e) under lighting of the first projector, a second three-dimensional model of the part being determined from the images obtained during an acquisition e) under lighting of the second projector, and the three-dimensional model of the part being determined by fusing the first model and the second model. a) a projection of a lighting on the surface by a first projector; b) an acquisition of a stereoscopic image of the surface by a first sensor and by a second sensor, arranged at two different locations; c) a detection of one or several specularities on each of the images of the sensors; the method being characterized in that it implements: d) an extinction of one or several portions of the lighting causing the specularity/specularities in the direction of the sensor(s); then e) an acquisition of a stereoscopic image of the surface by each of the sensors (1, 2);
Roundsling for lifting loads, having an inner non-interwoven structure formed from fibres and a covering which receives the inner non-interwoven structure and is formed from a woven fabric, wherein the covering is formed by a woven fabric flexible tube, which abuts tightly, and in the transverse direction elastically, on the inner non-interwoven structure and which presses elastically onto the inner non-interwoven structure from the radial direction, having warp threads aligned in the direction of the longitudinal course of the roundsling and a weft thread aligned transverse to the longitudinal course of the roundsling, characterised in that when the roundsling is unloaded the circumferential length of the covering measured transverse to the longitudinal course of the roundsling is on average at least 1.2 times the circumferential length (UL') which the covering has in the relaxed state and that the length of the weft thread can be stretched by 1.8 to 2.5 times in the elastic area.
A method for sealing between attachable pair of pipe flanges (1, 2; 25, 26) held together by tensioning means (3, 4), wherein: - at least one of the flanges ( 1; 2; 26) is configured with a circular groove ( 6; 7; 27) in order to at least partly receive a sealing ring ( 9; 21) which has its ring wall rectilinear as seen in a cross-section when front faces of the pipe flanges are spaced apart, - a bottom ( 13; 14; 28) of the groove ( 6, 7; 27) exhibits a first transition ( 15; 16; 29) between the bottom and a radially located inner wall of the groove, and a second transition ( 17; 18; 30) between the bottom and a radially located outer wall of the groove, - the ring ( 9; 21) in side view exhibits a shape like a truncated cone, and - a first axial end ( 19; 31) of the sealing ring ( 9; 21) has a first inner diameter and a first outer diameter, and a second axial end ( 20; 32) of the sealing ring ( 9; 21) has a second inner diameter and a second outer diameter, said second inner diameter and said second outer diameter being larger than the first inner and outer diameters ( d2, d1), respectively, characterized by attaching the pipe flanges ( 1, 2; 25, 26) to each other such that the flanges in an operative state are forcibly held in an abutting and facial engagement, and tensioning of tensioning means ( 3, 4) to create said operative state, causing compressive forces to act onto the sealing ring ( 9; 21) such that its wall, as viewed in cross-section, is bent radially to exhibit a curved configuration. - at least one of the flanges ( 1; 2; 26) is configured with a circular groove ( 6; 7; 27) in order to at least partly receive a sealing ring ( 9; 21) which has its ring wall rectilinear as seen in a cross-section when front faces of the pipe flanges are spaced apart, - a bottom ( 13; 14; 28) of the groove ( 6, 7; 27) exhibits a first transition ( 15; 16; 29) between the bottom and a radially located inner wall of the groove, and a second transition ( 17; 18; 30) between the bottom and a radially located outer wall of the groove, - the ring ( 9; 21) in side view exhibits a shape like a truncated cone, and - a first axial end ( 19; 31) of the sealing ring ( 9; 21) has a first inner diameter and a first outer diameter, and a second axial end ( 20; 32) of the sealing ring ( 9; 21) has a second inner diameter and a second outer diameter, said second inner diameter and said second outer diameter being larger than the first inner and outer diameters ( d2, d1), respectively,
Nano-Imprint stamp comprising: - a punch body which is produced by local removal of material from a stamp-blank and which forms a punch end structure, wherein said punch front end structure in the direction of a stamp set axis may be pressed into a substrate, for generating an imprint which is complementary to the stamp face structure, - the stamp face structure is carrying a plurality of setting surfaces (S1, S2,...), which are aligned substantially transversely to the stamp set axis, and at least some of these set surfaces (S1, S2,...) in the direction of the stamp set axis provides different level positions (L1, L2...). - the stamp blank is constructed as a layer structure which includes a plurality of layer boundaries (G1, G2, G3), and the layer structure is designed such that the positions of the layer boundaries (G1, G2, G3) correspond to the level positions (L1, L2,...). - characterized in that the layer boundaries are formed by a significant dotation gradient. - a punch body which is produced by local removal of material from a stamp-blank and which forms a punch end structure, wherein said punch front end structure in the direction of a stamp set axis may be pressed into a substrate, for generating an imprint which is complementary to the stamp face structure, - the stamp face structure is carrying a plurality of setting surfaces (S1, S2,...), which are aligned substantially transversely to the stamp set axis, and at least some of these set surfaces (S1, S2,...) in the direction of the stamp set axis provides different level positions (L1, L2...). - the stamp blank is constructed as a layer structure which includes a plurality of layer boundaries (G1, G2, G3), and the layer structure is designed such that the positions of the layer boundaries (G1, G2, G3) correspond to the level positions (L1, L2,...). - characterized in that the layer boundaries are formed by a significant dotation gradient.
A device for holding a surface to be touch-sensitized, said surface having an upper face and an opposite face and being touch-sensitized by capacitive means capable of detecting a displacement of said surface, the device comprising: - capacitive means (308, 508); - a monolithic frame, having an upper rim and a lower rim, for embedding the surface to be touch-sensitized, such that the capacitive means (308, 508) are arranged on the perimeter of the frame between the lower rim of the frame and the opposite face of the surface; - deformable means (306, 510) arranged on the perimeter of the monolithic frame between the upper rim of the frame and the upper face of the surface; each deformable means being positioned at an equal distance between two capacitive means. - capacitive means (308, 508); - a monolithic frame, having an upper rim and a lower rim, for embedding the surface to be touch-sensitized, such that the capacitive means (308, 508) are arranged on the perimeter of the frame between the lower rim of the frame and the opposite face of the surface; - deformable means (306, 510) arranged on the perimeter of the monolithic frame between the upper rim of the frame and the upper face of the surface;
A control device configured to control a motor (50X, 50Y) for performing axial feed of a moved object, comprising: an input unit configured to allow an operator to perform an axial feed operation and specify an axial feed rate; a motor driving control unit configured to drive the motor so that the moved object moves at the specified axial feed rate only while the axial feed operation is being performed by the operator; an amount-of-movement detecting unit configured to detect an amount of movement of the moved object in an axial feed direction; a coordinate position detecting unit configured to detect, based on the amount of movement, a coordinate position of the moved object in the axial feed direction on a predetermined coordinate system; a display unit configured to display at least the coordinate position; and a rounding processing unit configured to repeatedly perform rounding processing for rounding at least one of the coordinate position and the amount of movement of the moved object to a rounding place corresponding to the specified axial feed rate while the axial feed operation is being performed, wherein the motor driving control unit is further configured to, after the axial feed operation is stopped, drive the motor so that at least one of the coordinate position and the amount of movement of the moved object is rounded based on a result of the rounding processing that was performed last. an input unit configured to allow an operator to perform an axial feed operation and specify an axial feed rate; a motor driving control unit configured to drive the motor so that the moved object moves at the specified axial feed rate only while the axial feed operation is being performed by the operator; an amount-of-movement detecting unit configured to detect an amount of movement of the moved object in an axial feed direction; a coordinate position detecting unit configured to detect, based on the amount of movement, a coordinate position of the moved object in the axial feed direction on a predetermined coordinate system; a display unit configured to display at least the coordinate position; and a rounding processing unit configured to repeatedly perform rounding processing for rounding at least one of the coordinate position and the amount of movement of the moved object to a rounding place corresponding to the specified axial feed rate while the axial feed operation is being performed, wherein the motor driving control unit is further configured to, after the axial feed operation is stopped, drive the motor so that at least one of the coordinate position and the amount of movement of the moved object is rounded based on a result of the rounding processing that was performed last.
An instrument set for creating two substantially parallel tunnels in a bone with a controlled distance and relative radial position between the two tunnels comprising: a first instrument configured to create or maintain a first tunnel through the bone, the first instrument comprising: a shaft with a proximal end and a distal end; a drill guide with two or more radial indicia extending from a central hole, wherein two or more of the radial indicia include along their respective lengths a respective guide hole at a predetermined distance from the central hole; and a second instrument configured to be passed through at least one of the guide holes to create a second tunnel that is substantially parallel with the first tunnel, characterized in that the first instrument comprises: a distal mark (2, 2002) near the distal end of the shaft configured to designate a radial position of the first instrument, and a proximal mark (3, 2003) near the proximal end of the shaft that correlates with the radial position of the distal mark (2, 2002), wherein the radial indicia are configured to be aligned with the proximal mark to provide a radial direction for the creation of a second tunnel that is substantially parallel with the first tunnel. a first instrument configured to create or maintain a first tunnel through the bone, the first instrument comprising: a shaft with a proximal end and a distal end; a drill guide with two or more radial indicia extending from a central hole, wherein two or more of the radial indicia include along their respective lengths a respective guide hole at a predetermined distance from the central hole; and a second instrument configured to be passed through at least one of the guide holes to create a second tunnel that is substantially parallel with the first tunnel, characterized in that the first instrument comprises: a distal mark (2, 2002) near the distal end of the shaft configured to designate a radial position of the first instrument, and a proximal mark (3, 2003) near the proximal end of the shaft that correlates with the radial position of the distal mark (2, 2002), a distal mark (2, 2002) near the distal end of the shaft configured to designate a radial position of the first instrument, and a proximal mark (3, 2003) near the proximal end of the shaft that correlates with the radial position of the distal mark (2, 2002), wherein the radial indicia are configured to be aligned with the proximal mark to provide a radial direction for the creation of a second tunnel that is substantially parallel with the first tunnel.
An electrical assembly for a motor vehicle, suitable for contacting with a connector, wherein the electrical assembly comprises a housing and a circuit board including electrical components and conducting tracks, and first contact elements that are accessible to the connector, and these first contact elements located on the assembly are configured as contact surfaces on the circuit board, in that a contacting area of the circuit board is configured with conducting tracks to form these contact surfaces, wherein the first contact elements located on the assembly are configured as edge contacts on the circuit board, characterized in that the housing of the assembly has an inner chamber (1.5) and a contacting chamber (1.3) directed towards a connector area (1.1), wherein at least one inner wall (1.2, 2.1) is provided to separate the inner chamber (1.5) from the contacting chamber (1.3), and the circuit board including the electrical components (3.2) is arranged in the inner chamber (1.5), and only the contacting area (3.1) formed on the circuit board protrudes through the inner wall (1.2) into the contacting chamber (1.3).