mhurhangee/patent-ind-claim-en huggingface dataset:
A medicament comprising (a) a molecule binding to a receptor on the surface of a dendritic cell, (b) an antigen-comprising protein bound to molecule of (a), for use in a method of inducing a cellular cytotoxic immune response, the method comprising the steps of: i) administering to a patient a delivery system comprising (a) a molecule binding to a receptor on the surface of a cross-presenting XCR1 + (Chemokine (C motif) Receptor 1 + ) dendritic cell, (b) an antigen-comprising protein bound to molecule of (a) and (c) a first adjuvant which supports a Th1 mediated response and which is a danger signal, wherein upon binding of the molecule of (a) to the receptor, the protein of (b) is internalized and processed in the dendritic cell and the antigen comprised in the protein is presented on the surface of the dendritic cell, thereby activating a T cell in the patient; and ii) administering to the patient a re-activator selected from the group consisting of (e) a peptide-loaded major histocompatibility complex class I (MHC-I) presenting cell and a second adjuvant which supports a Th1 mediated response and which is a danger signal, and (f) a combination of (d) complexed interleukin 2 (IL-2cx), and (e), wherein the peptide is derived from the antigen-comprising protein as defined in step i), thereby re-activating the T cell activated in step i), wherein the peptide-loaded major histocompatibility complex class I (MHC I) presenting cell and the second adjuvant which supports a Th1 mediated response and which is a danger signal of step ii) are administered only once in a time frame of from 5 days to 9 days after the administration of the delivery system of step i) and wherein the first adjuvant of c) and the second adjuvant are independently selected from the group consisting of synthetic or recombinant RIG-I agonists, TLR ligands, Montanides, saponins, a lipopolysaccharide (LPS), and a CpG oligodeoxynucleotide. i) administering to a patient a delivery system comprising (a) a molecule binding to a receptor on the surface of a cross-presenting XCR1 + (Chemokine (C motif) Receptor 1 + ) dendritic cell, (b) an antigen-comprising protein bound to molecule of (a) and (c) a first adjuvant which supports a Th1 mediated response and which is a danger signal, wherein upon binding of the molecule of (a) to the receptor, the protein of (b) is internalized and processed in the dendritic cell and the antigen comprised in the protein is presented on the surface of the dendritic cell, thereby activating a T cell in the patient; and ii) administering to the patient a re-activator selected from the group consisting of (e) a peptide-loaded major histocompatibility complex class I (MHC-I) presenting cell and a second adjuvant which supports a Th1 mediated response and which is a danger signal, and (f) a combination of (d) complexed interleukin 2 (IL-2cx), and (e), wherein the peptide is derived from the antigen-comprising protein as defined in step i), thereby re-activating the T cell activated in step i),
A group III nitride semiconductor luminescence element (20 having a mesa structure comprising an n-type layer , a p-type layer , an active layer provided between the n-type layer and the p-type layer, an n-electrode provided on said n-type layer, and a p-electrode provided on said p-type layer; and a substrate , wherein the active layer and the p-type layer are partially removed on the n-type layer , an exposed face of the n-type layer is formed, thereby the mesa structure is formed to comprise remains of the active layer and the p-type layer , the p-electrode is provided on the p-type layer the n-electrode is provided on the exposed face of the n-type layer , wherein from a top view of said group III nitride semiconductor luminescence element , the mesa structure has a projection part, which protrudes into a recess of the n-electrode and is surrounded by the n-electrode , and the p-electrode is formed on the p-type layer of the projection part, characterized in that a luminescence peak wavelength is 200 to 350 nm, and the p-electrode on the mesa structure is formed outside a range in which the distance between the projection part of the mesa structure and the outer peripheral of said p-electrode is 20 to 40 μm. a substrate , wherein the active layer and the p-type layer are partially removed on the n-type layer , an exposed face of the n-type layer is formed, thereby the mesa structure is formed to comprise remains of the active layer and the p-type layer , the p-electrode is provided on the p-type layer the n-electrode is provided on the exposed face of the n-type layer , wherein from a top view of said group III nitride semiconductor luminescence element , the mesa structure has a projection part, which protrudes into a recess of the n-electrode and is surrounded by the n-electrode , and the p-electrode is formed on the p-type layer of the projection part, characterized in that a luminescence peak wavelength is 200 to 350 nm, and the p-electrode on the mesa structure is formed outside a range in which the distance between the projection part of the mesa structure and the outer peripheral of said p-electrode is 20 to 40 μm.
A circuit for an implant, comprising: a housing having a plurality of walls that define a cavity and at least one opening; a sensor connected to said opening in said housing , said sensor comprising: a lid wafer including at least one electrode and having a first dimension; a base wafer including at least one electrode and being bonded to said lid wafer, said base wafer having a second dimension shorter than said first dimension; characterized in that said base wafer is positioned entirely within said cavity defined by said housing and a surface of said lid wafer is exposed to an exterior of said housing . a housing having a plurality of walls that define a cavity and at least one opening; a sensor connected to said opening in said housing , said sensor comprising: a lid wafer including at least one electrode and having a first dimension; a base wafer including at least one electrode and being bonded to said lid wafer, said base wafer having a second dimension shorter than said first dimension; a lid wafer including at least one electrode and having a first dimension; a base wafer including at least one electrode and being bonded to said lid wafer, said base wafer having a second dimension shorter than said first dimension;
A method for calculating a SOC (State of Charge) of a battery being charged, comprising: obtaining a full charge voltage and a reference charging voltage curve of the battery, wherein the reference charging voltage curve at least comprises an approximately linear ascent stage; taking a voltage value from the approximately linear ascent stage of the reference charging voltage curve as a preset reference voltage, and obtaining a reference SOC corresponding to the preset reference voltage; obtaining a charging voltage curve corresponding to a current charging state of the battery, and acquiring a current charging voltage at which the charging voltage curve enters into an approximately linear ascent stage; determining a compensation factor according to the preset reference voltage, the full charge voltage, and the current charging voltage; and utilizing the compensation factor and the reference SOC to calculate a current SOC corresponding to the current charging state of the battery, wherein the compensation factor is utilized to convert a voltage difference between the current charging voltage and the preset reference voltage into a SOC difference between the current SOC and the reference SOC. obtaining a full charge voltage and a reference charging voltage curve of the battery, wherein the reference charging voltage curve at least comprises an approximately linear ascent stage; taking a voltage value from the approximately linear ascent stage of the reference charging voltage curve as a preset reference voltage, and obtaining a reference SOC corresponding to the preset reference voltage; obtaining a charging voltage curve corresponding to a current charging state of the battery, and acquiring a current charging voltage at which the charging voltage curve enters into an approximately linear ascent stage; determining a compensation factor according to the preset reference voltage, the full charge voltage, and the current charging voltage; and utilizing the compensation factor and the reference SOC to calculate a current SOC corresponding to the current charging state of the battery, wherein the compensation factor is utilized to convert a voltage difference between the current charging voltage and the preset reference voltage into a SOC difference between the current SOC and the reference SOC.
An electrosurgical generator for generating radiofrequency (RF) electromagnetic (EM) energy and microwave EM energy, the generator comprising: a microwave source for generating a microwave signal; a microwave channel for conveying the microwave signal from the microwave source to be output from the generator; an RF channel for conveying an RF signal to be output from the generator; a microwave-to-RF converter connectable to receive the microwave signal, the microwave-to-RF converter being arranged to: generate the RF signal from the microwave signal, and deliver the RF signal to the RF channel. a microwave source for generating a microwave signal; a microwave channel for conveying the microwave signal from the microwave source to be output from the generator; an RF channel for conveying an RF signal to be output from the generator; a microwave-to-RF converter connectable to receive the microwave signal, the microwave-to-RF converter being arranged to: generate the RF signal from the microwave signal, and deliver the RF signal to the RF channel. generate the RF signal from the microwave signal, and deliver the RF signal to the RF channel.
A surgical stapler , comprising: (a) an anvil channel member ; (b) an anvil surface having a plurality of staple forming pockets; (c) a cartridge channel member configured to releasably couple with the anvil channel member, wherein a distal portion of the cartridge channel member is configured to receive a staple cartridge; (d) a first latch feature; (e) a second latch feature, wherein the second latch feature is movable between an open position in which the anvil channel member and the cartridge channel member are moveable relative to one another, and a closed position in which the second latch feature engages the first latch feature and thereby fixes the anvil channel member and the cartridge channel member relative to one another; and (f) a latch lockout member , wherein the latch lockout member is movable between a lockout state in which the latch lockout member locks the second latch feature in the open position, and a release state in which the latch lockout member permits the second latch feature to move from the open position to the closed position, wherein the latch lockout member is configured to move from the lockout state to the release state in response to being engaged by the first latch feature, characterized in that the latch lockout member includes a first engagement surface configured to contact the first latch feature and a second engagement surface configured to contact the second latch feature, wherein the first latch feature is configured to contact the first engagement surface to thereby disengage the second engagement surface from the second latch feature and move the latch lockout member from the lockout state to the release state. (a) an anvil channel member ; (b) an anvil surface having a plurality of staple forming pockets; (c) a cartridge channel member configured to releasably couple with the anvil channel member, wherein a distal portion of the cartridge channel member is configured to receive a staple cartridge; (d) a first latch feature; (e) a second latch feature, wherein the second latch feature is movable between an open position in which the anvil channel member and the cartridge channel member are moveable relative to one another, and a closed position in which the second latch feature engages the first latch feature and thereby fixes the anvil channel member and the cartridge channel member relative to one another; and (f) a latch lockout member , wherein the latch lockout member is movable between a lockout state in which the latch lockout member locks the second latch feature in the open position, and a release state in which the latch lockout member permits the second latch feature to move from the open position to the closed position, wherein the latch lockout member is configured to move from the lockout state to the release state in response to being engaged by the first latch feature,
A reclosure for a reclosable package , including: a first profile and a second profile ; the first profile including a first web portion with a first lower interlocking element and a first upper interlocking element ; and the second profile including a second web portion with a second lower interlocking element and a second upper interlocking element , characterised in that the first profile is severed through the first upper interlocking element to form a lower first profile and an upper first profile (12") thereby forming at least one tab extending from an upper edge of the lower first profile and including a portion of the first upper interlocking element . a first profile and a second profile ; the first profile including a first web portion with a first lower interlocking element and a first upper interlocking element ; and the second profile including a second web portion with a second lower interlocking element and a second upper interlocking element , characterised in that the first profile is severed through the first upper interlocking element to form a lower first profile and an upper first profile (12") thereby forming at least one tab extending from an upper edge of the lower first profile and including a portion of the first upper interlocking element .
A method comprising: receiving, by a wireless device from a base station, a radio resource control, RRC, reconfiguration message comprising a first logical channel configuration for transmission of data of a first logical channel in an RRC connected state, wherein the RRC reconfiguration message comprises cell group configuration parameters of a master cell group; receiving, by the wireless device from the base station, an RRC release message comprising a second logical channel configuration for transmission of data of a second logical channel in an RRC inactive state or an RRC idle state, wherein the second logical channel configuration comprises an allowed configured grant list indicating that the data of the second logical channel is mapped to a configured grant configuration, of a configured grant, for transmission in the RRC inactive state or the RRC idle state; and transmitting, by the wireless device in the RRC inactive state or the RRC idle state, to the base station, the data of the second logical channel. receiving, by a wireless device from a base station, a radio resource control, RRC, reconfiguration message comprising a first logical channel configuration for transmission of data of a first logical channel in an RRC connected state, wherein the RRC reconfiguration message comprises cell group configuration parameters of a master cell group; receiving, by the wireless device from the base station, an RRC release message comprising a second logical channel configuration for transmission of data of a second logical channel in an RRC inactive state or an RRC idle state, wherein the second logical channel configuration comprises an allowed configured grant list indicating that the data of the second logical channel is mapped to a configured grant configuration, of a configured grant, for transmission in the RRC inactive state or the RRC idle state; and transmitting, by the wireless device in the RRC inactive state or the RRC idle state, to the base station, the data of the second logical channel.
An image rendering method for rendering a pixel at a viewpoint, comprising the steps of: for a first element of a virtual scene, having a predetermined surface at a position within that scene, providing (s1010) the position and a direction based on the viewpoint to a machine learning system previously trained to predict a factor that, when combined with a distribution function that characterises an interaction of light with the predetermined surface, generates a pixel value corresponding to the first element of the virtual scene as illuminated at the position; combining (s1020) the predicted factor from the machine learning system with the distribution function to generate the pixel value corresponding to the illuminated first element of the virtual scene at the position; and incorporating (s1030) the pixel value into a rendered image for display; wherein the machine learning system was previously trained with a training set based on images comprising multiple lighting conditions, in which a respective machine learning system is trained for each of a plurality of contributing components of the image; a respective distribution function is used for each of the plurality of contributing components of the image; and the respective generated pixel values are combined to create a final combined pixel value incorporated into the rendered image for display. for a first element of a virtual scene, having a predetermined surface at a position within that scene, providing (s1010) the position and a direction based on the viewpoint to a machine learning system previously trained to predict a factor that, when combined with a distribution function that characterises an interaction of light with the predetermined surface, generates a pixel value corresponding to the first element of the virtual scene as illuminated at the position; combining (s1020) the predicted factor from the machine learning system with the distribution function to generate the pixel value corresponding to the illuminated first element of the virtual scene at the position; and incorporating (s1030) the pixel value into a rendered image for display; wherein the machine learning system was previously trained with a training set based on images comprising multiple lighting conditions, in which a respective machine learning system is trained for each of a plurality of contributing components of the image; a respective distribution function is used for each of the plurality of contributing components of the image; and the respective generated pixel values are combined to create a final combined pixel value incorporated into the rendered image for display.
A dental appliance comprising: an outer perimeter defined by a first front flap and a second front flap , said front flaps being separated by a forward cusp and a first side flap and a second side flap , a first side cusp separating said first front flap from said first side flap and a second side cusp separating said second front flap from said second side flap ; an open area in each of said forward front flaps ; a line of symmetry ; a symmetric, arch-shaped bite line area extending through said line of symmetry and located behind said open areas ; a first side of said bite line area extending through a first set of open spaces and a second side of said bite line area extending through a second set of open spaces ; characterized in that each said open area extends through the appliance from a first planar side to a second planar side and has a leading portion angled toward the appliance line of symmetry and a trailing portion angled away from said line of symmetry and in that the appliance comprises a rear palate portion continuously extending from the first set of open spaces to the second set of open spaces. an outer perimeter defined by a first front flap and a second front flap , said front flaps being separated by a forward cusp and a first side flap and a second side flap , a first side cusp separating said first front flap from said first side flap and a second side cusp separating said second front flap from said second side flap ; an open area in each of said forward front flaps ; a line of symmetry ; a symmetric, arch-shaped bite line area extending through said line of symmetry and located behind said open areas ; a first side of said bite line area extending through a first set of open spaces and a second side of said bite line area extending through a second set of open spaces ; characterized in that each said open area extends through the appliance from a first planar side to a second planar side and has a leading portion angled toward the appliance line of symmetry and a trailing portion angled away from said line of symmetry and in that the appliance comprises a rear palate portion continuously extending from the first set of open spaces to the second set of open spaces.
A composition comprising a compound of formula (I), wherein, one of A and B is a pore-forming protein, and the other is a protein biomolecule selected from the group consisting of an enzyme, an antibody, and a receptor; L A and L B are linkers; X 1 and X 2 are atoms independently selected from C and N; and R 1 is a chemical group selected from the group consisting of: H, F, Cl, Br, I, CH 3 , CF 3 , NH 2 , NO 2 , OH, C(O)OH, C(O)OCH 3 , C(O)NH 2 , linear or branched (C 2 -C 5 ) alkyl, linear or branched (C 2 -C 5 ) alkenyl, linear or branched (C 2 -C 5 ) alkynyl, unsubstituted or para-substituted 6-membered aryl ring, and unsubstituted or para-substituted 6-membered heteroaryl ring. one of A and B is a pore-forming protein, and the other is a protein biomolecule selected from the group consisting of an enzyme, an antibody, and a receptor; L A and L B are linkers; X 1 and X 2 are atoms independently selected from C and N; and R 1 is a chemical group selected from the group consisting of: H, F, Cl, Br, I, CH 3 , CF 3 , NH 2 , NO 2 , OH, C(O)OH, C(O)OCH 3 , C(O)NH 2 , linear or branched (C 2 -C 5 ) alkyl, linear or branched (C 2 -C 5 ) alkenyl, linear or branched (C 2 -C 5 ) alkynyl, unsubstituted or para-substituted 6-membered aryl ring, and unsubstituted or para-substituted 6-membered heteroaryl ring.
A cleaning system comprising: a remote controller configured to emit an infrared ray and visible light; and a cleaning robot configured to track the infrared ray emitted from the remote controller , wherein the remote controller comprises: a visible light transmitter configured to emit the visible light, an infrared ray transmitter configured to emit the infrared ray, and a lens module configured to refract the infrared ray and the visible light, characterized in that a distance between the visible light transmitter and the lens module is different from a distance between the infrared ray transmitter and the lens module . a remote controller configured to emit an infrared ray and visible light; and a cleaning robot configured to track the infrared ray emitted from the remote controller , wherein the remote controller comprises: a visible light transmitter configured to emit the visible light, an infrared ray transmitter configured to emit the infrared ray, and a lens module configured to refract the infrared ray and the visible light, characterized in that a distance between the visible light transmitter and the lens module is different from a distance between the infrared ray transmitter and the lens module . a visible light transmitter configured to emit the visible light, an infrared ray transmitter configured to emit the infrared ray, and a lens module configured to refract the infrared ray and the visible light, characterized in that a distance between the visible light transmitter and the lens module is different from a distance between the infrared ray transmitter and the lens module .