mhurhangee/patent-ind-claim-en huggingface dataset:
A solid-state imaging element comprising: a photoelectric conversion section formed in each pixel; a grid-patterned inter-pixel separation section (21; 41) separating the photoelectric conversion section of each pixel, wherein the inter-pixel separation section (21; 41) includes a protruding section (21a; 41a) having a shape protruding toward the photoelectric conversion section , and a well region (22; 42) formed between the inter-pixel separation section (21; 41), including the protruding section (21a; 41a), and the photoelectric conversion section , the well region (22; 42) being different in conductivity type from the photoelectric conversion section . a photoelectric conversion section formed in each pixel; a grid-patterned inter-pixel separation section (21; 41) separating the photoelectric conversion section of each pixel, wherein the inter-pixel separation section (21; 41) includes a protruding section (21a; 41a) having a shape protruding toward the photoelectric conversion section , and a well region (22; 42) formed between the inter-pixel separation section (21; 41), including the protruding section (21a; 41a), and the photoelectric conversion section , the well region (22; 42) being different in conductivity type from the photoelectric conversion section .
A method , comprising: receiving user data, wherein the user data indicates first content scheduled to be recorded on a user device ; receiving, from the user device , a request for second content ; determining, based on the user data indicating that the first content is scheduled to be recorded, a replacement content segment relevant to a user; inserting the replacement content segment into the second content ; and providing the second content having the replacement content segment to the user device . receiving user data, wherein the user data indicates first content scheduled to be recorded on a user device ; receiving, from the user device , a request for second content ; determining, based on the user data indicating that the first content is scheduled to be recorded, a replacement content segment relevant to a user; inserting the replacement content segment into the second content ; and providing the second content having the replacement content segment to the user device .
Pneumatic vehicle tyre comprising a profiled tread , a carcass and a belt composed of at least one angled belt ply comprising steel strength members which are arranged parallel to one another and form a first angle of 15° to 50° with a circumferential direction U, • wherein radially outward of the carcass the pneumatic vehicle tyre comprises precisely one bandage composed of at least one bandage strength member which is arranged in circumferential windings, forms a second angle of at most 10° with the circumferential direction U and is embedded in elastomeric material and • wherein the bandage is arranged radially inside the belt and a strength member ply which follows the bandage in the radially inward direction is a strength member ply of the carcass , characterized in that • the pneumatic vehicle tyre has a sub-profile thickness of 0.5 mm to 2.0 mm. • wherein radially outward of the carcass the pneumatic vehicle tyre comprises precisely one bandage composed of at least one bandage strength member which is arranged in circumferential windings, forms a second angle of at most 10° with the circumferential direction U and is embedded in elastomeric material and • wherein the bandage is arranged radially inside the belt and a strength member ply which follows the bandage in the radially inward direction is a strength member ply of the carcass , characterized in that • the pneumatic vehicle tyre has a sub-profile thickness of 0.5 mm to 2.0 mm.
A method for producing a coated article, which comprises applying a powder coating material comprising a fluororesin (A), a non-fluororesin (B) and a metallic pigment (C) to the surface of a substrate, and heating the substrate having the powder coating material applied, at a temperature of at least the glass transition temperature of the fluororesin (A) and the non-fluororesin (B), followed by cooling to form a coating film on the substrate surface, and which is characterized in that the content of the metallic pigment (C) is from 0.7 to 23 mass% to the total amount of the powder coating material, the PCI value of the coating film is at least 6, and the flip-flop value is at least 1.2, provided that the PCI value is a value obtained by judging the smoothness of the coating film surface by means of smoothness visual judgement standard plates by Powder Coating Institute, and the flip-flop value is a value obtained by "the brightness (25°) at the time of highlight measured at an illumination angle of 25° and a light receiving angle of 0°, based on a direction (0°) perpendicular to the film surface"/"the brightness (75°) at the time of shade measured at an illumination angle of 75° and a light receiving angle of 0°, based on a direction perpendicular to the film surface", wherein the mass ratio (A/B) of the fluororesin (A) to the non-fluororesin (B) in the entire powder coating material is from 90/10 to 10/90, and wherein the powder coating material further contains a plasticizer (D) having a cyclic hydrocarbon group in the molecule, and/or the powder coating material further contains fine particles (E) made of at least one member selected from silica, alumina, titania and zinc oxide, and having a specific surface area of from 10 to 500 m 2 /g and an average primary particle size in a range of from 0.1 to 100 nm.
A nanoelectromechanical and/or microelectromechanical gas sensor configured for the analysis of a mixture of at least two gaseous species or at least two families of gaseous species to be detected, said gas sensor comprising: - a fixed part , - at least one suspended part in relation to fixed part , - at least one sensitive zone carried on the suspended part , said sensitive zone being able to adsorb/absorb and desorb gaseous species or families of gaseous species, - means for heating of at least the sensitive zone , - means for detecting the adsorption/absorption and the desorption of gaseous species or families of gaseous species, on the sensitive zone, - detection means for controlling the heating means , characterized in that the detection means and the control means are configured to apply at least one cycle comprising the steps: a) application to at least one sensitive zone of a first temperature to provoke an adsorption/absorption of the gaseous species or families of every gaseous species to be detected, b) measurement of the adsorption/absorption detection signal, c) application of a second temperature to provoke the desorption of a part of the gaseous species or families of gaseous species, d) measurement of a detection signal of said desorption, e) repetition of steps a), b), c) and d) at adsorption/absorption temperature different from the adsorption/absorption temperature of a previous step a) and until all the gaseous species or families of gaseous species of interest are separated. - a fixed part , - at least one suspended part in relation to fixed part , - at least one sensitive zone carried on the suspended part , said sensitive zone being able to adsorb/absorb and desorb gaseous species or families of gaseous species, - means for heating of at least the sensitive zone , - means for detecting the adsorption/absorption and the desorption of gaseous species or families of gaseous species, on the sensitive zone, - detection means for controlling the heating means , a) application to at least one sensitive zone of a first temperature to provoke an adsorption/absorption of the gaseous species or families of every gaseous species to be detected, b) measurement of the adsorption/absorption detection signal, c) application of a second temperature to provoke the desorption of a part of the gaseous species or families of gaseous species, d) measurement of a detection signal of said desorption, e) repetition of steps a), b), c) and d) at adsorption/absorption temperature different from the adsorption/absorption temperature of a previous step a) and until all the gaseous species or families of gaseous species of interest are separated.
A liquid foodstuff comprising a. a spirulina-extract comprising phycocyanin b. at least one multi-sulphated carrageenan and/or pectin c. a chelating agent d. a solvent, i. wherein the amount of multi-sulphated carrageenan and/or pectin is between 0.003 and 0.6 wt%, ii. wherein the weight ratio between multi-sulphated carrageenan and/or pectin and phycocyanin ranges between 1:1 and 100:1, iii. wherein the chelating agent is present between 1 - 2000 ppm, iv. wherein the solvent consists of water and optionally ethanol, v. wherein the amount of solvent ranges between 60-99 wt%, vi. wherein the wt% are relative to the total weight of the liquid foodstuff. a. a spirulina-extract comprising phycocyanin b. at least one multi-sulphated carrageenan and/or pectin c. a chelating agent d. a solvent, i. wherein the amount of multi-sulphated carrageenan and/or pectin is between 0.003 and 0.6 wt%, ii. wherein the weight ratio between multi-sulphated carrageenan and/or pectin and phycocyanin ranges between 1:1 and 100:1, iii. wherein the chelating agent is present between 1 - 2000 ppm, iv. wherein the solvent consists of water and optionally ethanol, v. wherein the amount of solvent ranges between 60-99 wt%, vi. wherein the wt% are relative to the total weight of the liquid foodstuff. i. wherein the amount of multi-sulphated carrageenan and/or pectin is between 0.003 and 0.6 wt%, ii. wherein the weight ratio between multi-sulphated carrageenan and/or pectin and phycocyanin ranges between 1:1 and 100:1, iii. wherein the chelating agent is present between 1 - 2000 ppm, iv. wherein the solvent consists of water and optionally ethanol, v. wherein the amount of solvent ranges between 60-99 wt%, vi. wherein the wt% are relative to the total weight of the liquid foodstuff.
A bispecific antibody comprising an antibody fragment of anti-MUC1 VHH and an antibody fragment of anti-CD16 VHH, wherein the amino acid sequence of the antibody fragment of the anti-MUC1 VHH is as shown in SEQ ID No. 1, and the amino acid sequence of the antibody fragment of anti-CD16 VHH is as shown in SEQ ID No. 2 or SEQ ID No. 3.
A self-propelled driving simulator with a machine frame , which can be moved on a ground via three, preferably four or more, wheel assemblies , wherein the wheel assemblies each comprise at least one wheel , which can be displaced on the ground and is arranged rotatably about a steering axle , wherein the machine frame is coupled to a control cabin , which comprises a seat for a person and operating elements for controlling the driving simulator, wherein a movement device is provided, via which the control cabin is connected to the machine frame , wherein the movement device enables the control cabin to be inclined relative to the machine frame about a pitch axis and/or a roll axis, wherein at least one wheel assembly comprises a wheel drive for driving a wheel about the wheel axle , wherein preferably several wheel assemblies or all wheel assemblies each comprise at least one wheel drive for driving a wheel about the respective wheel axle , characterized in that the control cabin has a rotational degree of freedom relative to the machine frame , so that the control cabin can be rotated relative to the machine frame about a main axis of rotation , the main axis of rotation preferably being substantially a normal vector of the plane defined by the wheel contact surfaces of the wheels on the ground , in that the movement device enables an active rotation of the control cabin relative to the machine frame about the main axis of rotation , in that the wheel assemblies and/or the wheels are connected to the machine frame via a kinematic arrangement , which is designed as a chassis, the kinematic arrangement comprising elastic and/or damping elements , such as a spring-damper arrangement and a wheel suspension , for damping and/or attenuating unevenness of the ground .
A pot lid assembly configured to cover a pot body , the pot lid assembly comprising: a pot lid and a mixing machine ; wherein the mixing machine comprises an electric motor and a mixing apparatus , the mixing apparatus having a stirring rod and a plurality of stirring vanes positioned on the stirring rod , and the electric motor having a rotary shaft operatively connected with the stirring rod so that the electric motor can cause the stirring rod to rotate; wherein the pot lid is configured to cover the pot body to form a closed cooking space; and, wherein when the pot lid is removed from the pot body , the mixing apparatus remains located in the cooking space of the pot body ; characterized in that : the pot lid includes a passageway ; the stirring rod and the rotary shaft are fixedly connected; a portion of the mixing machine is located in the passageway ; and, wherein when the pot lid moves upwards to be disengaged from the pot body , a portion of the mixing machine exits from the passageway , while the rotary shaft of the electric motor remains connected to the stirring rod of the mixing apparatus ; and, wherein when the pot lid moves downwards to cover the pot body , a portion of the mixing machine passes through the passageway . a pot lid and a mixing machine ; wherein the mixing machine comprises an electric motor and a mixing apparatus , the mixing apparatus having a stirring rod and a plurality of stirring vanes positioned on the stirring rod , and the electric motor having a rotary shaft operatively connected with the stirring rod so that the electric motor can cause the stirring rod to rotate; wherein the pot lid is configured to cover the pot body to form a closed cooking space; and, wherein when the pot lid is removed from the pot body , the mixing apparatus remains located in the cooking space of the pot body ; characterized in that : the pot lid includes a passageway ; the stirring rod and the rotary shaft are fixedly connected; a portion of the mixing machine is located in the passageway ; and, wherein when the pot lid moves upwards to be disengaged from the pot body , a portion of the mixing machine exits from the passageway , while the rotary shaft of the electric motor remains connected to the stirring rod of the mixing apparatus ; and, wherein when the pot lid moves downwards to cover the pot body , a portion of the mixing machine passes through the passageway . the pot lid includes a passageway ; the stirring rod and the rotary shaft are fixedly connected; a portion of the mixing machine is located in the passageway ; and, wherein when the pot lid moves upwards to be disengaged from the pot body , a portion of the mixing machine exits from the passageway , while the rotary shaft of the electric motor remains connected to the stirring rod of the mixing apparatus ; and, wherein when the pot lid moves downwards to cover the pot body , a portion of the mixing machine passes through the passageway .
A system for establishing a correspondence between a first image and a subsequent image of a machine readable symbol, the system comprising: an imaging device , the imaging device adapted to acquire the first image (84; 128) and the subsequent image (116; 140), the first image (84; 128) including a first candidate region for the machine readable symbol, and the subsequent image (116; 140) including symbol data; and a processor that is operatively coupled to the imaging device and is adapted to execute a data stitching algorithm ; characterised in that : the data stitching algorithm generates a synthetic model of the machine readable symbol, the synthetic model being a model of a plurality of known features of a particular symbol; correlates the synthetic model and the symbol data to find a position association between the first candidate region and the symbol data; and based on the position association, refines the subsequent image to produce refined subsequent image , such that the first image (84; 128) and the subsequent image can be stitched together for decoding. an imaging device , the imaging device adapted to acquire the first image (84; 128) and the subsequent image (116; 140), the first image (84; 128) including a first candidate region for the machine readable symbol, and the subsequent image (116; 140) including symbol data; and a processor that is operatively coupled to the imaging device and is adapted to execute a data stitching algorithm ; characterised in that : the data stitching algorithm generates a synthetic model of the machine readable symbol, the synthetic model being a model of a plurality of known features of a particular symbol; correlates the synthetic model and the symbol data to find a position association between the first candidate region and the symbol data; and based on the position association, refines the subsequent image to produce refined subsequent image , such that the first image (84; 128) and the subsequent image can be stitched together for decoding. the data stitching algorithm generates a synthetic model of the machine readable symbol, the synthetic model being a model of a plurality of known features of a particular symbol; correlates the synthetic model and the symbol data to find a position association between the first candidate region and the symbol data; and based on the position association, refines the subsequent image to produce refined subsequent image , such that the first image (84; 128) and the subsequent image can be stitched together for decoding.
A terminal comprising: a receiving section configured to monitor, in a first Bandwidth part, BWP, a Physical Downlink Control Channel, PDCCH; characterized by further comprising: a control section configured to perform a control operation by using, as a PDCCH monitoring periodicity for the first BWP, a PDCCH monitoring periodicity for a second BWP, whose numerology is different than the first BWP, multiplied by a power of 2.
An apparatus, comprising: a connectivity management unit configured to provide wireless network access; a local secure storage configured to securely store access point information in encrypted form; and a processor configured to control the local secure storage to selectively provide a subset of the access point information stored in the local secure storage to the connectivity management unit of the apparatus in unencrypted form by adding, updating and removing access point information in the connectivity management unit of the apparatus when context of the apparatus changes. a connectivity management unit configured to provide wireless network access; a local secure storage configured to securely store access point information in encrypted form; and a processor configured to control the local secure storage to selectively provide a subset of the access point information stored in the local secure storage to the connectivity management unit of the apparatus in unencrypted form by adding, updating and removing access point information in the connectivity management unit of the apparatus when context of the apparatus changes.
A method of treating biological tissue comprising the steps of: soaking of the biological tissue treated with a crosslinking agent with a saline solution; contacting the soaked biological tissue with an aqueous solution comprising Hydrogen Peroxide; contacting the biological tissue with an aqueous solution comprising PBS and EDTA; contacting the biological tissue with a solution comprising glycerol, ethanol and EDTA; and contacting the biological tissue with a glycerol solution. soaking of the biological tissue treated with a crosslinking agent with a saline solution; contacting the soaked biological tissue with an aqueous solution comprising Hydrogen Peroxide; contacting the biological tissue with an aqueous solution comprising PBS and EDTA; contacting the biological tissue with a solution comprising glycerol, ethanol and EDTA; and contacting the biological tissue with a glycerol solution.
A method comprising treating soil in a field for agricultural applications with two different aqueous mixtures, first with an aqueous mixture containing a sulfonated aromatic polymer component and then with an aqueous mixture containing polyethylene oxide; wherein the sulfonated aromatic polymer component is sulfonated naphthalene formaldehyde polycondensate.
A particle sensor device, comprising: a substrate , a photodetector , a dielectric on or above the substrate , a source of electromagnetic radiation , and a through-substrate via in the substrate , wherein the through-substrate via is exposed to an environment, a waveguide is arranged in or above the dielectric , electromagnetic radiation from the source of electromagnetic radiation being coupled into a portion (7.1) of the waveguide , and a further portion (7.2) of the waveguide is arranged at the photodetector , characterized in that the waveguide is configured for adsorption of particles, and the waveguide traverses the through-substrate via at a location between the portion (7.1) and the further portion (7.2) . a substrate , a photodetector , a dielectric on or above the substrate , a source of electromagnetic radiation , and a through-substrate via in the substrate , wherein the through-substrate via is exposed to an environment, a waveguide is arranged in or above the dielectric , electromagnetic radiation from the source of electromagnetic radiation being coupled into a portion (7.1) of the waveguide , and a further portion (7.2) of the waveguide is arranged at the photodetector , characterized in that the waveguide is configured for adsorption of particles, and the waveguide traverses the through-substrate via at a location between the portion (7.1) and the further portion (7.2) .
An anti-CD70 antibody or antigen-binding fragment thereof for use in a method of treating acute myeloid leukaemia (AML) or myelodysplastic syndrome (MDS) in a subject, the method comprising: administering to the subject one or more doses of the anti-CD70 antibody or antigen-binding fragment thereof, and administering to the subject a nucleoside metabolic inhibitor (NMI) selected from azacitidine and decitabine, wherein the anti-CD70 antibody or antigen-binding fragment thereof inhibits CD70-CD27 binding. administering to the subject one or more doses of the anti-CD70 antibody or antigen-binding fragment thereof, and administering to the subject a nucleoside metabolic inhibitor (NMI) selected from azacitidine and decitabine,