mhurhangee/patent-ind-claim-en huggingface dataset:
A differential pressure sensor for sensing a differential pressure of a process fluid, comprising: a sensor body having a sensor cavity formed therein having a cavity profile; and a diaphragm in the sensor cavity configured to deflect in response to an applied differential pressure , the diaphragm having a diaphragm profile wherein a gap between the cavity profile and the diaphragm profile changes as a function of the differential pressure ; wherein the cavity profile and the diaphragm profile change as a function of a line pressure, wherein the cavity profile and the diaphragm profile change to compensate for changes in the gap due to deformation of the sensor body due to the line pressure and thereby compensate for inaccuracies in differential pressure measurements due to the line pressure, wherein the sensor body includes a sensor body deformation cavity which deforms in response to the line pressure, and wherein the diaphragm includes a diaphragm deformation cavity which deforms in response to the line pressure. a sensor body having a sensor cavity formed therein having a cavity profile; and a diaphragm in the sensor cavity configured to deflect in response to an applied differential pressure , the diaphragm having a diaphragm profile wherein a gap between the cavity profile and the diaphragm profile changes as a function of the differential pressure ; wherein the cavity profile and the diaphragm profile change as a function of a line pressure, wherein the cavity profile and the diaphragm profile change to compensate for changes in the gap due to deformation of the sensor body due to the line pressure and thereby compensate for inaccuracies in differential pressure measurements due to the line pressure, wherein the sensor body includes a sensor body deformation cavity which deforms in response to the line pressure, and wherein the diaphragm includes a diaphragm deformation cavity which deforms in response to the line pressure. wherein the cavity profile and the diaphragm profile change as a function of a line pressure, wherein the cavity profile and the diaphragm profile change to compensate for changes in the gap due to deformation of the sensor body due to the line pressure and thereby compensate for inaccuracies in differential pressure measurements due to the line pressure, wherein the sensor body includes a sensor body deformation cavity which deforms in response to the line pressure, and wherein the diaphragm includes a diaphragm deformation cavity which deforms in response to the line pressure.
Light module for a motor vehicle headlamp for emitting light to form a light distribution in an area in front of the light module, the light module - two or more primary light sources (PLQ1, PLQ2) that generate light to form a main light distribution (HLV), and - comprises at least one secondary light source (SLQ1) which generates light for forming an auxiliary light distribution (ZLV), where the auxiliary light distribution overlays the main light distribution to form an overall light distribution, wherein at least one primary reflector (PR1, PR2) is assigned to the primary light sources (PLQ1, PLQ2) and is set up to bundle the light emitted by the primary light sources (PLQ1, PLQ2), wherein an optical imaging system (AS) is assigned to the at least one secondary light source (SLQ1) and is set up to image the light emitted by the at least one secondary light source (SLQ1) in an area in front of the light module in the form of the additional light distribution (ZLV), the at least one primary reflector (PR1, PR2) is arranged to direct the light emitted by the primary light sources (PLQ1, PLQ2) into an area in front of the light module in the form of the main light distribution (HLV), characterized in that each primary light source (PLQ1, PLQ2) is assigned exactly one primary reflector (PR1, PR2), where the at least one secondary light source (SLQ1) is formed as a light conversion means of a laser light unit, wherein the main light distribution (HLV) is formed as a short-range main beam light distribution, the auxiliary light distribution (ZLV) is formed as a long-range auxiliary partial main beam light distribution and the total light distribution (LFL) is formed as a long-range main beam light distribution. - two or more primary light sources (PLQ1, PLQ2) that generate light to form a main light distribution (HLV), and - comprises at least one secondary light source (SLQ1) which generates light for forming an auxiliary light distribution (ZLV),
A method of supplying chemicals via a supply line running between a surface location and a subsea location , the method comprising the steps of: supplying a first chemical (A) to the supply line ; supplying a second chemical (B), different from the first chemical (A), to the supply line , the first and second chemicals being sequentially supplied as discrete slugs; providing at least one inert separator (P) between the first chemical (A) and the second chemical (B); cleaning an inner wall of the supply line by the inert separator (P) while the first (A) and second chemicals (B) are being supplied; identifying the first chemical (A) and the second chemical (B) at the supply line ; and removing the first (A) and second chemicals (B) from the supply line based upon the identification. supplying a first chemical (A) to the supply line ; supplying a second chemical (B), different from the first chemical (A), to the supply line , the first and second chemicals being sequentially supplied as discrete slugs; providing at least one inert separator (P) between the first chemical (A) and the second chemical (B); cleaning an inner wall of the supply line by the inert separator (P) while the first (A) and second chemicals (B) are being supplied; identifying the first chemical (A) and the second chemical (B) at the supply line ; and removing the first (A) and second chemicals (B) from the supply line based upon the identification.
A method for setting an alternative destination of a robot, the method comprising the steps of: acquiring information on obstruction of arrival at a first destination of a robot, and determining an obstruction area associated with the arrival obstruction information by clustering adjacent areas around the first destination ; determining a destination candidate area around the obstruction area with reference to a size of the robot; and determining an area in the destination candidate area, which is specified on the basis of a location of the robot, as a second destination of the robot, characterized in that , in the step of determining the obstruction area, a closed area is specified by successively clustering an area adjacent to the closed area where at least one obstruction object associated with the arrival obstruction information exists, using an area containing or adjacent to the first destination in a map associated with the robot as a starting point of the clustering, and the obstruction area is determined on the basis of the specified closed area, wherein the arrival obstruction information indicates that the robot is determined to be unable to arrive at the first destination , wherein in the step of determining the obstruction area, the adjacent areas around the first destination are clustered by applying a flood-fill algorithm in the map, and wherein in the step of determining the obstruction area, the clustering is successively performed until areas where the at least one obstruction object does not exist are found at all boundaries of the closed area. acquiring information on obstruction of arrival at a first destination of a robot, and determining an obstruction area associated with the arrival obstruction information by clustering adjacent areas around the first destination ; determining a destination candidate area around the obstruction area with reference to a size of the robot; and determining an area in the destination candidate area, which is specified on the basis of a location of the robot, as a second destination of the robot, characterized in that , in the step of determining the obstruction area, a closed area is specified by successively clustering an area adjacent to the closed area where at least one obstruction object associated with the arrival obstruction information exists, using an area containing or adjacent to the first destination in a map associated with the robot as a starting point of the clustering, and the obstruction area is determined on the basis of the specified closed area, wherein the arrival obstruction information indicates that the robot is determined to be unable to arrive at the first destination , wherein in the step of determining the obstruction area, the adjacent areas around the first destination are clustered by applying a flood-fill algorithm in the map, and wherein in the step of determining the obstruction area, the clustering is successively performed until areas where the at least one obstruction object does not exist are found at all boundaries of the closed area.
Material in the form of solid particles containing a solid fatty phase at the storage temperature of said material and a continuous shell comprising at least one silicon oxide and trapping said fatty phase, said fatty phase comprising: - a crystallizable oil having a melting point (T M ) lower than 100 °C, and being selected from among fatty materials and mixtures of fatty materials of natural or synthetic origin having a melting point higher than 15 °C; and - at least one substance of interest, said storage temperature being at all times lower than the melting point of said crystallizable oil; and said material being characterized in that it is sub-micrometric and in that the fatty phase further comprises superparamagnetic nanoparticles functionalized on the surface by at least one fatty acid. - a crystallizable oil having a melting point (T M ) lower than 100 °C, and being selected from among fatty materials and mixtures of fatty materials of natural or synthetic origin having a melting point higher than 15 °C; and - at least one substance of interest, said storage temperature being at all times lower than the melting point of said crystallizable oil; and said material being characterized in that it is sub-micrometric and in that the fatty phase further comprises superparamagnetic nanoparticles functionalized on the surface by at least one fatty acid.
Process for printing a surface with a fluid which comprises an organic semiconductor material, where the fluid is conveyed from a storage container through a supply line to a print head which can be moved over the surface and is printed onto the surface by the print head , characterised in that at least some of the fluid conveyed through the supply line to the print head is conveyed back into the storage container via a return line , with a fluid circuit being formed, and in that the fluid in the fluid circuit flows through a cleaning device , by means of which the fluid is cleaned, and in that the fluid conveyed back to the storage container flows, at least in a section, around the fluid conveyed to the print head in the supply line .
Gravure printing unit by which a substrate (S; S') can be printed according to a gravure printing method, said gravure printing unit having a forme cylinder , which comprises on its circumference an image-forming pattern of recesses , and having an inking unit by which the pattern of recesses provided on the forme cylinder can be at least partially inked, wherein the forme cylinder can be partially inked from an inking device via a first inking unit cylinder , which has, in the region of its lateral surface , recesses that correspond to recesses on the forme cylinder , and via a second inking unit cylinder , which is to be partially inked by the first inking unit cylinder , characterized in that within the printing width, the forme cylinder has at least one first recess (514.1; 514.2) for producing an image element (761; 762; 763; 764) that is used to check the relative position between the forme cylinder and the first inking unit cylinder (503; 512), which recess overlaps on the forme cylinder only partially with a projection, which is obtained on the forme cylinder by the rolling off, in pairs in each case, of the inking unit cylinders (512; 519; 531) that are involved in the ink transport, of a recess (513.1; 513.3; 513.2; 513.4), which is provided in a defined position and location on the circumference of the first inking unit cylinder for the purpose of checking the relative position, in that the forme cylinder additionally has, within the printing width, at least one second recess (514.1; 514.2; 514.3; 514.4) for printing at least one second image element (763; 764; 767; 768) of the same test field (R a ; R a ' ; R a " ; R a ′′′ ; R a * ; R u ; R u ' ; R u " ; R u ′′′ ; R u * ; R a ; R a ' ; R a * ; R u ; R u ' ; R u * ), the second image element being associated with the first image element (763; 764; 767; 768) as a reference element (763; 764; 767; 768), and in that the second recess (514.1; 514.2; 514.3; 514.4) overlaps at least partially with a projection, obtained by rolling, of a second recess (513.1; 513.3; 513.2; 513.4) provided on the circumference of the first inking unit cylinder .
IL-6 binding polypeptide, comprising an IL-6 binding motif BM, which motif consists of an amino acid sequence selected from: i) EEX 3 X 4 AWX 7 EIHX 11 LPNLX 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 X 29 wherein, independently from each other, X 3 is selected from A, F, H, K, Q, R, S, W and Y; X 4 is selected from A, D, E, F, H, I, K, L, M, N, Q, R, S, T, V and Y; X 7 is selected from F, H, I, K, L, M, N, R, S, T, V, W and Y; X 11 is selected from A, I, K, L, M, N, R, S, T and V; X 16 is selected from N and T; X 17 is selected from A, I, T and V; X 18 is selected from D, E, G, H, K, N, Q, R, S and T; X 20 is selected from I, L, M, R, T and V; X 21 is selected from A, S, T and V; X 25 is selected from I, M, Q, S, T, V and W; X 26 is selected from K and S; X 28 is selected from F, L, M and Y; and X 29 is selected from D and R; and ii) an amino acid sequence which has at least 93 % identity to the sequence defined in i). i) EEX 3 X 4 AWX 7 EIHX 11 LPNLX 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 X 29 wherein, independently from each other, X 3 is selected from A, F, H, K, Q, R, S, W and Y; X 4 is selected from A, D, E, F, H, I, K, L, M, N, Q, R, S, T, V and Y; X 7 is selected from F, H, I, K, L, M, N, R, S, T, V, W and Y; X 11 is selected from A, I, K, L, M, N, R, S, T and V; X 16 is selected from N and T; X 17 is selected from A, I, T and V; X 18 is selected from D, E, G, H, K, N, Q, R, S and T; X 20 is selected from I, L, M, R, T and V; X 21 is selected from A, S, T and V; X 25 is selected from I, M, Q, S, T, V and W; X 26 is selected from K and S; X 28 is selected from F, L, M and Y; and X 29 is selected from D and R; and ii) an amino acid sequence which has at least 93 % identity to the sequence defined in i).
A computer-implemented method of controlling network systems that utilize virtual port channels in an overlay network, the method comprising: detecting , by a first network device in a virtual port channel, a link failure between the first network device and a destination node; receiving , by the first network device in the virtual port channel, a first data packet addressed to the destination node; and in response to detecting the link failure, rewriting , by the first network device, encapsulation information of the first data packet, wherein rewriting the encapsulation information of the first data packet causes the first data packet to be forwarded to a second network device, wherein the second network device is paired with the first network device in the virtual port channel, and wherein rewriting the encapsulation information further comprises providing an indication in the encapsulation information that the first data packet was undeliverable by the destination node, wherein the first data packet is discarded by the second network device based on the indication in the encapsulation information that the first data packet was undeliverable by the destination node. detecting , by a first network device in a virtual port channel, a link failure between the first network device and a destination node; receiving , by the first network device in the virtual port channel, a first data packet addressed to the destination node; and in response to detecting the link failure, rewriting , by the first network device, encapsulation information of the first data packet, wherein rewriting the encapsulation information of the first data packet causes the first data packet to be forwarded to a second network device, wherein the second network device is paired with the first network device in the virtual port channel, and wherein rewriting the encapsulation information further comprises providing an indication in the encapsulation information that the first data packet was undeliverable by the destination node, wherein the first data packet is discarded by the second network device based on the indication in the encapsulation information that the first data packet was undeliverable by the destination node.
A method of preparing a maleimide-based copolymer, comprising: adding a monomer mixture including an aromatic vinyl-based monomer and a maleimide-based monomer to an aqueous solution consisting of an aqueous solvent and a first vinyl cyanide-based monomer and performing polymerization.
A functional fluid, comprising (A) from 50 to 85, preferably 60 - 82 wt.-% of alkoxy glycol according to formula (I) CH 3 - O - (CH 2 - CH 2 - O) n -H (I) wherein n is a number from 2 to 5, with the proviso that in at least 30 wt.-% of all compounds according to formula (I) n is 3, and (B) from 1 to 15, preferably 1.5 to 10 wt.-% of alkoxy glycol according to formula (II) R 1 - O - (CH 2 - CH 2 - O) m - H (II) wherein R 1 is a C 2 to C 8 alkyl residue, m is a number from 2 to 6, with the proviso that in at least 65 wt.-% of all compounds according to formula (II) m is 3, and (C) from 6 to 35, preferably 10 - 25 wt.-% of at least one compound according to formula (III) H - O - (CH 2 - CH 2 - O) k - H (III) wherein k is a number of 2 or higher, with the proviso that in at least 80 wt.-% of all compounds according to formula (III) k is 2 or 3, (D) at least one additive, selected from the group consisting of corrosion inhibitor, amines, stabilizers, defoamers and lubricants, the fluid comprising at most 3 wt.-% of an ester between boric acid and a glycol or alkyl polyglycol compound. (A) from 50 to 85, preferably 60 - 82 wt.-% of alkoxy glycol according to formula (I) CH 3 - O - (CH 2 - CH 2 - O) n -H (I) wherein n is a number from 2 to 5, with the proviso that in at least 30 wt.-% of all compounds according to formula (I) n is 3, and (B) from 1 to 15, preferably 1.5 to 10 wt.-% of alkoxy glycol according to formula (II) R 1 - O - (CH 2 - CH 2 - O) m - H (II) wherein R 1 is a C 2 to C 8 alkyl residue, m is a number from 2 to 6, with the proviso that in at least 65 wt.-% of all compounds according to formula (II) m is 3, and R 1 is a C 2 to C 8 alkyl residue, m is a number from 2 to 6, with the proviso that in at least 65 wt.-% of all compounds according to formula (II) m is 3, and (C) from 6 to 35, preferably 10 - 25 wt.-% of at least one compound according to formula (III) H - O - (CH 2 - CH 2 - O) k - H (III) wherein k is a number of 2 or higher, with the proviso that in at least 80 wt.-% of all compounds according to formula (III) k is 2 or 3, (D) at least one additive, selected from the group consisting of corrosion inhibitor, amines, stabilizers, defoamers and lubricants, the fluid comprising at most 3 wt.-% of an ester between boric acid and a glycol or alkyl polyglycol compound.
An anti-IL-12 or anti-IL-23 antibody for use in a method of treating an inflammatory bowel disease in a subject, the method comprising administering to the subject the antibody in an ingestible device, wherein the ingestible device comprises: an ingestible housing comprising a reservoir having a therapeutically effective amount of the anti-IL-12 or anti-IL-23 antibody stored therein; a release mechanism having a closed state which retains the anti-IL-12 or anti-IL-23 antibody in the reservoir and an open state which allows for the release of the anti-IL-12 or anti-IL-23 antibody from the reservoir to the exterior of the device; an actuator which controls the transition of the release mechanism from the closed to the open state; a detector for detecting the location of the ingestible device in the subject's gastrointestinal tract; and a processor which is coupled to the detector and to the actuator and which triggers the actuator to cause the release mechanism to transition from its closed state to its open state to release the anti-IL-12 or anti-IL-23 antibody in the cecum when it is determined that the ingestible device is in the cecum of the subject, wherein the site of disease is in the colon, wherein determining the location of the ingestible device in the gastrointestinal tract comprises detecting a transition of the ingestible device from the ileum to the cecum. an ingestible housing comprising a reservoir having a therapeutically effective amount of the anti-IL-12 or anti-IL-23 antibody stored therein; a release mechanism having a closed state which retains the anti-IL-12 or anti-IL-23 antibody in the reservoir and an open state which allows for the release of the anti-IL-12 or anti-IL-23 antibody from the reservoir to the exterior of the device; an actuator which controls the transition of the release mechanism from the closed to the open state; a detector for detecting the location of the ingestible device in the subject's gastrointestinal tract; and a processor which is coupled to the detector and to the actuator and which triggers the actuator to cause the release mechanism to transition from its closed state to its open state to release the anti-IL-12 or anti-IL-23 antibody in the cecum when it is determined that the ingestible device is in the cecum of the subject, wherein the site of disease is in the colon, wherein determining the location of the ingestible device in the gastrointestinal tract comprises detecting a transition of the ingestible device from the ileum to the cecum.
A transverse rod installation instrument assembly for inserting a transverse rod on the spine of a subject percutaneously comprising: an ipsilateral rod clamp ; a contralateral rod clamp; a transverse rod a first rod clamp extender configured to be mounted on the ipsilateral rod clamp and a second rod clamp extender configured to be mounted on the contralateral rod clamp when the ipsilateral rod clamp and the contralateral rod clamp are secured to a vertebra at the ipsilateral and contralateral pedicle; and a pivoting installation instrument configured to be pivotably mounted to the first rod clamp extender and the second rod clamp extender to pass the transverse rod percutaneously through a head portion of the ipsilateral side rod clamp and to the head portion of the contralateral rod clamp after passing through a spinous process of the vertebra along arc (A) on radius (R) such that the transverse rod is secured at the head portion of the ipsilateral rod clamp and the head portion of the contralateral rod clamp. an ipsilateral rod clamp ; a contralateral rod clamp; a transverse rod a first rod clamp extender configured to be mounted on the ipsilateral rod clamp and a second rod clamp extender configured to be mounted on the contralateral rod clamp when the ipsilateral rod clamp and the contralateral rod clamp are secured to a vertebra at the ipsilateral and contralateral pedicle; and a pivoting installation instrument configured to be pivotably mounted to the first rod clamp extender and the second rod clamp extender to pass the transverse rod percutaneously through a head portion of the ipsilateral side rod clamp and to the head portion of the contralateral rod clamp after passing through a spinous process of the vertebra along arc (A) on radius (R) such that the transverse rod is secured at the head portion of the ipsilateral rod clamp and the head portion of the contralateral rod clamp.