mhurhangee/patent-ind-claim-en huggingface dataset:
Motor vehicle which comprises at least two rows of seats and a central console which is located between two seats of the first row of seats in front of the second row of seats, the said central console comprising a casing which contains an air conditioning system which is capable of blowing air toward the rear, the console comprising a support structure which comprises a fixing base which is fixed to the floor of the vehicle, an upper support which is located higher than the fixing base, a plurality of pillars formed by tubular profile-members which connect the base and the upper support and means for retaining the said casing, the said support structure delimiting a space for at least partially receiving the said casing , characterized in that the fixing base is formed by a substantially rectangular plate having through-holes for the passage of fixing screws for fixing to a floor, the upper support being formed by a rectangular planar plate, two pillars (13 and 14) connecting the left and right front corners of the fixing base and of the upper support while two pillars connect the left and right front corners of the fixing base and of the upper support .
Substrate having a carbon film as a coating, the carbon film having an oscillating variation of the sp 2 /sp 3 -ratio in the thickness direction of the carbon film so that neighboring regions having a high sp 2 /sp 3 -ratio are spaced apart from each other by at least 0.2 nm and sandwich a region having a lower sp 2 /sp 3 -ratio , wherein the distance between neighboring regions having a high sp 2 /sp 3 -ratio is less than 50 nm, characterized in that the fraction of the bonds between carbon atoms being sp 2 -bonds in regions which have a high sp 2 /sp 3 -ratio is within the range of from 40%-50%, with the remainder of the bonds in the regions which have a high sp 2 /sp 3 -ratio being sp 3 -bonds, wherein the fraction of the bonds between carbon atoms being sp 2 -bonds in those regions of the carbon film which have a lower sp 2 /sp 3 -ratio is within the range of from 20%-35%, with the remainder of the bonds in the regions which have a lower sp 2 /sp 3 -ratio being sp 3 -bonds. the carbon film having an oscillating variation of the sp 2 /sp 3 -ratio in the thickness direction of the carbon film so that neighboring regions having a high sp 2 /sp 3 -ratio are spaced apart from each other by at least 0.2 nm and sandwich a region having a lower sp 2 /sp 3 -ratio , wherein the distance between neighboring regions having a high sp 2 /sp 3 -ratio is less than 50 nm, characterized in that the fraction of the bonds between carbon atoms being sp 2 -bonds in regions which have a high sp 2 /sp 3 -ratio is within the range of from 40%-50%, with the remainder of the bonds in the regions which have a high sp 2 /sp 3 -ratio being sp 3 -bonds, wherein the fraction of the bonds between carbon atoms being sp 2 -bonds in those regions of the carbon film which have a lower sp 2 /sp 3 -ratio is within the range of from 20%-35%, with the remainder of the bonds in the regions which have a lower sp 2 /sp 3 -ratio being sp 3 -bonds.
A communication control method used in a mobile communication system for providing a multicast broadcast service, MBS, the communication control method comprising: transmitting, by a base station configured to manage a first cell (C1) and a second cell (C2) different from the first cell (C1), to a user equipment in the first cell (C1), a notification message related to MBS transmission in the second cell (C2) different from the first cell (C1), characterized in that the user equipment is located in an area at which the MBS transmission is able to be received from both the first cell (C1) and the second cell (C2), wherein the notification message comprises bandwidth part information indicating a bandwidth part used in the second cell (C2) for the MBS transmission. transmitting, by a base station configured to manage a first cell (C1) and a second cell (C2) different from the first cell (C1), to a user equipment in the first cell (C1), a notification message related to MBS transmission in the second cell (C2) different from the first cell (C1), characterized in that the user equipment is located in an area at which the MBS transmission is able to be received from both the first cell (C1) and the second cell (C2), wherein the notification message comprises bandwidth part information indicating a bandwidth part used in the second cell (C2) for the MBS transmission.
A computer implemented malware protection method to protect a target computer system in a set of computer systems from a malware, the method comprising: accessing a model of the set of computer systems, the model identifying interacting pairs of the computer systems in the set based on interactions corresponding to previous communication occurring between the computer systems in the pairs, and the model identifying the target computer system; simulating, over a plurality of time periods, a propagation of the malware originating from a predetermined source computer system in the model, the simulation being based on a number of interactions per time period between each interacting pair of computer systems in the set, and a rate of transmission of the malware per interaction; evaluating, for each of at least a subset of the time periods, a probability of infection of the target computer system in the time period; responsive to the simulating step, identifying an earliest time period during which the probability of infection of the target computer system meets a predetermined threshold probability; and triggering the deployment of malware protection measures in respect of the target computer system at a time period selected with reference to the identified time period so as to protect the target computer system from the malware. accessing a model of the set of computer systems, the model identifying interacting pairs of the computer systems in the set based on interactions corresponding to previous communication occurring between the computer systems in the pairs, and the model identifying the target computer system; simulating, over a plurality of time periods, a propagation of the malware originating from a predetermined source computer system in the model, the simulation being based on a number of interactions per time period between each interacting pair of computer systems in the set, and a rate of transmission of the malware per interaction; evaluating, for each of at least a subset of the time periods, a probability of infection of the target computer system in the time period; responsive to the simulating step, identifying an earliest time period during which the probability of infection of the target computer system meets a predetermined threshold probability; and triggering the deployment of malware protection measures in respect of the target computer system at a time period selected with reference to the identified time period so as to protect the target computer system from the malware.
A carrier for an exhaust gas purification catalyst, comprising aluminum borate particles having a peak (also referred to as the "pore peak") exhibiting the highest intensity in a void volume diameter range of from 50 nm to 100 nm in a logarithmic differential void volume distribution measured using a mercury intrusion porosimeter, wherein the aluminum borate particles comprise lanthanum (La); a mass ratio of a content of aluminum (Al) to a content of boron (B) (mass ratio of Al/B) in the aluminum borate particles is from 6 to 35; and wherein (a) the aluminum borate particles have a crystal structure represented by 10Al 2 O 3 ·2B 2 O 3 or 9Al 2 O 3 ·2B 2 O 3 or, alternatively, (b) the aluminum borate particles have a crystal structure represented by 10Al 2 O 3 ·2B 2 O 3 or 9Al 2 O 3 ·2B 2 O 3 and a crystal structure represented by Al 2 O 3 . (a) the aluminum borate particles have a crystal structure represented by 10Al 2 O 3 ·2B 2 O 3 or 9Al 2 O 3 ·2B 2 O 3 or, alternatively, (b) the aluminum borate particles have a crystal structure represented by 10Al 2 O 3 ·2B 2 O 3 or 9Al 2 O 3 ·2B 2 O 3 and a crystal structure represented by Al 2 O 3 .
A method for manufacturing security documents (D 1 , D 2 , D x ) in the form of separate foils (F 1 , F 2 , F x ), each foil comprising at least one security document (D 1 , D 2 , D x ), this document including at least one window which passes right therethrough to lead to each of its opposite faces , this window being closed by a translucent or transparent film (3; 4) which is made secured to one of said opposite faces , called "first face", this film (3; 4) including at least one security element located and marked in the area delimited by said window , so that it is visible therethrough, on both sides, and which comprises a step during which said security element is transferred to said document by hot transfer, either independently or at the same time as said film (3; 4), characterized in that several security elements each intended to be positioned in an area delimited by a window , are each respectively integrated in juxtaposed and independent assemblies which include a portion of transparent or translucent film , these assemblies being carried by one and the same support material , and in that each assembly is detached from said support material during said hot transfer to be applied individually to said foils (F 1 , F 2 , F x ).
A battery formed of curved layers , the curved layers comprising: an anode arranged on an anode substrate ; a cathode arranged on a cathode substrate , the anode substrate being curved at a first curvature and the cathode substrate being curved at a second curvature, the first curvature being different from the second curvature as measured along a radial direction (R); and a separator between the anode and the cathode, wherein a thickness (t 1 ) of the anode substrate and a thickness (t 5 ) of the cathode substrate are determined based on the curvature of the respective substrate, such that the one of the anode substrate and the cathode substrate with a larger curvature has a larger thickness; and wherein layers more radially outward are relatively thinner than one or more layers more radially inward. an anode arranged on an anode substrate ; a cathode arranged on a cathode substrate , the anode substrate being curved at a first curvature and the cathode substrate being curved at a second curvature, the first curvature being different from the second curvature as measured along a radial direction (R); and a separator between the anode and the cathode, wherein a thickness (t 1 ) of the anode substrate and a thickness (t 5 ) of the cathode substrate are determined based on the curvature of the respective substrate, such that the one of the anode substrate and the cathode substrate with a larger curvature has a larger thickness; and wherein layers more radially outward are relatively thinner than one or more layers more radially inward.
An extraction cleaner system, comprising: a housing with a fluid delivery pathway and a fluid recovery pathway; a suction source disposed within the housing and fluidly connected to the fluid recovery pathway, the suction source configured to create a fluid pressure vacuum; a liquid source carried by the housing and fluidly connected to the fluid delivery pathway, the liquid source configured to contain and dispense a liquid; a suction nozzle fluidly connected to the fluid recovery pathway upstream from the suction source , the suction nozzle configured to draw therethrough the liquid dispensed from the liquid source , characterized in that the suction nozzle defines a pad compartment located within the fluid recovery pathway; wherein the extraction cleaner further comprises an absorbent pad removably stored inside the pad compartment . a housing with a fluid delivery pathway and a fluid recovery pathway; a suction source disposed within the housing and fluidly connected to the fluid recovery pathway, the suction source configured to create a fluid pressure vacuum; a liquid source carried by the housing and fluidly connected to the fluid delivery pathway, the liquid source configured to contain and dispense a liquid; a suction nozzle fluidly connected to the fluid recovery pathway upstream from the suction source , the suction nozzle configured to draw therethrough the liquid dispensed from the liquid source , characterized in that the suction nozzle defines a pad compartment located within the fluid recovery pathway; wherein the extraction cleaner further comprises an absorbent pad removably stored inside the pad compartment .
A method of moving portions , which each comprise at least one slice cut off from a food product, in particular by means of at least one slicing apparatus , in particular by means of a high-speed slicer, in which - a plurality of transport movers for transporting the portions are individually moved in a path system along at least one predefined path in a transport direction (R), wherein the transport movers each comprise at least one runner cooperating with the path system and at least one carrier for portions which is attached to the runner; - data are determined for one or more zones (Z1, Z2, Z3) which each comprise a section along the path , said data comprising at least the number of transport movers located in the respective zone (Z1, Z2, Z3); and - at least one measure is performed on the basis of the determined data at at least one functional point of the path system or of a total system comprising the path system , characterized in that the zone (Z1, Z2, Z3) is adaptable and/or changeable, in particular in dependence on the product and/or on the operating state, and wherein the measure performed on the basis of the determined data comprises slowing down or speeding up the operation of at least one slicing apparatus and/or at least one packaging apparatus . - a plurality of transport movers for transporting the portions are individually moved in a path system along at least one predefined path in a transport direction (R), wherein the transport movers each comprise at least one runner cooperating with the path system and at least one carrier for portions which is attached to the runner; - data are determined for one or more zones (Z1, Z2, Z3) which each comprise a section along the path , said data comprising at least the number of transport movers located in the respective zone (Z1, Z2, Z3); and - at least one measure is performed on the basis of the determined data at at least one functional point of the path system or of a total system comprising the path system , characterized in that the zone (Z1, Z2, Z3) is adaptable and/or changeable, in particular in dependence on the product and/or on the operating state, and wherein the measure performed on the basis of the determined data comprises slowing down or speeding up the operation of at least one slicing apparatus and/or at least one packaging apparatus .
Metal sandwich structure , consisting of a first and a second covering layer and a core layer arranged between the first and the second covering layer , the core layer having a waved structure comprising wave crests and wave troughs , wherein first channels are formed by the first covering layer and the core layer and second channels are formed by the second covering layer and the core layer , characterised in that the core layer is fixed with its wave crests on the first covering layer by means of an adhesive method and connected with its wave troughs on the second covering layer , at least the first and the second channels are filled with a pourable filler material, that the pourable filler material is an edged material and that the pourable filler material has a grain size of between 0.03 mm to 0.6 mm.
Topical use of a combination of serine with at least one further amino acid or amino acid derivative and with calcium L-lactate or its hydrate for increasing cellular uptake capacity of calcium in living cells of the epidermis expressed by having a greater abundance of junction proteins and a stronger binding of epidermal cells to each other where amino acid derivatives are selected from L-homoserine, pyruvate, alpha-ketoglutarate, glutamate or L-glutamate, glutamine, L-glutamine, and pyrrolidinone-5-carboxylic acid and their isomeric forms.
A chemical composition formulation for the delivery of a hydrophobic drug across a mucus coated membrane, comprising: a carrier for solubilizing said drug, said carrier being chemically stable in an environment of said mucus coated membrane, said carrier being a non-mucosal irritant, and said carrier being a mucoadhesive; and a lipid soluble hydrophobic photosensitizer or a precursor of such photosensitizer being lipid soluble; wherein the carrier comprises a liposomal vesicle and a block copolymer for mucoadhesion, wherein said block copolymer includes symmetrical triblock copolymers composed of polyethylene oxide (PEO) and polypropylene oxide (PPO), or a polymer for mucoadhesion selected from the group consisting of poly (acrylic acid) (PAA), carbopol, hydroxypropyl-methylcellulose, poly (methyl-acrylate), hyaluronic acid and chitosan; wherein the photosensitizer or precursor of the photosensitizer is packaged into said liposomal vesicle; and wherein the photosensitizer is temoporfin (mTHPC). a carrier for solubilizing said drug, said carrier being chemically stable in an environment of said mucus coated membrane, said carrier being a non-mucosal irritant, and said carrier being a mucoadhesive; and a lipid soluble hydrophobic photosensitizer or a precursor of such photosensitizer being lipid soluble; wherein the carrier comprises a liposomal vesicle and a block copolymer for mucoadhesion, wherein said block copolymer includes symmetrical triblock copolymers composed of polyethylene oxide (PEO) and polypropylene oxide (PPO), or a polymer for mucoadhesion selected from the group consisting of poly (acrylic acid) (PAA), carbopol, hydroxypropyl-methylcellulose, poly (methyl-acrylate), hyaluronic acid and chitosan; wherein the photosensitizer or precursor of the photosensitizer is packaged into said liposomal vesicle; and wherein the photosensitizer is temoporfin (mTHPC).
A medical implant comprising a biocomposite, said biocomposite comprising a polymer and a plurality of reinforcement mineral fibers, wherein a weight percentage of a mineral composition within the medical implant is in the range of 40%-65%, optionally 45%-60%, wherein mineral content is provided by the reinforcing mineral fiber made from the mineral composition, wherein the average diameter of said reinforcement mineral fibers is in a range of 1-20 microns; wherein said fibers are embedded in a polymer matrix comprising said biocomposite; wherein said polymer is selected from the group consisting of polylactide (PLA), poly-L-lactide (PLLA), poly-DL-lactide (PDLLA), poly-LD-lactide (PLDLA), polyglycolide (PGA), poly-lactide-glycolic acid (PLGA), polycaprolactone (PCL), poly-L-lactide-polycaprolactone (PLLA-PCL) and a combination thereof; and wherein residual monomer content in the medical implant following production is less than 3%.
A microdosing device (30; 40; 50; 60; 70; 70'; 80) for producing a microdosing volume of a fluid sample in the form of a microfree jet , i.e. a fluid volume in the microliter range or submicroliter range, which leaves the outlet opening of a fluid channel as a jet or free drop, comprising a fluid chamber (31; 41; 51; 61; 71; 81), a fluid channel (32; 42; 52; 62; 72; 72'; 82) which connects the interior of the fluid chamber with an exterior space and which serves to receive the microdosing volume of a fluid sample a displacement element (33; 43; 53; 63; 73; 83) adapted to deflect between a first position (P1) and a second position (P2) and to displace a microvolume of the fluid chamber, the microdosing device comprising a shape memory material actuator (35; 45; 55; 65; 75; 85) arranged to deflect the displacement element, and electrical control means to control the shape memory material actuator, characterized in that the microdosing device is arranged to move the displacement element (33; 43; 53; 63; 73; 83) in a pulse-like manner from the first (P1) to the second position (P2), and the displacement of the microvolume from the fluid chamber causes the discharge of the microdosing volume in the form of a microfree jet into the exterior space, and the electrical control device is arranged to activate the shape memory material actuator with a very short voltage or current pulse, the time span of which is between 1 ms and 100 ms.
A computer-aided method of analysing medical images in substantially real-time, the method comprising the steps of: receiving one or more medical images; analysing said one or more medical images to determine one or more characteristics using one or more trained machine learning models , wherein the step of analysing and determining comprises identifying tissue type and density category ; and generating output data based on the determined one or more characteristics, wherein the output data is indicative of a requirement to obtain one or more additional medical tests , further wherein the output data is based on at least the identified tissue type and density category . receiving one or more medical images; analysing said one or more medical images to determine one or more characteristics using one or more trained machine learning models , wherein the step of analysing and determining comprises identifying tissue type and density category ; and generating output data based on the determined one or more characteristics, wherein the output data is indicative of a requirement to obtain one or more additional medical tests , further wherein the output data is based on at least the identified tissue type and density category .
Device for mounting an ultrasonic transducer adapted for mounting said transducer through a wall of a flowmeter having piping within which a fluid flows, said device having a body adapted to emerge onto an inner surface of said piping via an aperture along a contour line forming an interface between said inner surface of the piping and a surface of the body, such that any straight line orthogonal to the contour line and tangential to the inner surface of the piping at a point of the contour line is likewise tangential to said surface of the body at this point, characterised in that the device has a surface, named active surface, in contact with the fluid flowing in the piping, and in that this active surface - is formed by said surface of the body in contact with the fluid flowing in the piping, - extends continuously, without a hole, cut, opening or discontinuity, and in that the transducer is mounted in the body , isolated from the fluid flowing in the piping owing to the continuity of the active surface. - is formed by said surface of the body in contact with the fluid flowing in the piping, - extends continuously, without a hole, cut, opening or discontinuity,