mhurhangee/patent-ind-claim-en huggingface dataset:
An eye drop applicator, comprising: • a housing (H) having walls defining a shell with an opening surrounded by a perimetral edge configured to be adapted to a facial area surrounding the eye socket of a user, at least three projecting spaced points from said perimetral edge being contained in an aperture plane (P) defined by said perimetral edge, said aperture plane (P) covering the exposed part of an eyeball of said eye in the use position of the device; • a first inlet opening (A1) formed through the housing (H) for inserting at least part of a nozzle (B) of an eye drop dispenser defining a first droplet dispensing axis (E1); • a viewing aperture (AV) formed through the housing (H) providing a viewing axis (EV) perpendicular to an aperture plane of the viewing aperture (AV); characterized in that : • said first droplet dispensing axis (E1) and said viewing axis (EV) are not coplanar; • said first droplet dispensing axis (E1) intersects said aperture plane (P) at a first intersection point (P1) and said viewing axis (EV) intersects the aperture plane (P) at a vision intersection point (PV), the separation between said first inlet opening (A1) and said viewing aperture (AV) being greater than the distance between the first intersection point (P1) and the vision intersection point (PV). • a housing (H) having walls defining a shell with an opening surrounded by a perimetral edge configured to be adapted to a facial area surrounding the eye socket of a user, at least three projecting spaced points from said perimetral edge being contained in an aperture plane (P) defined by said perimetral edge, said aperture plane (P) covering the exposed part of an eyeball of said eye in the use position of the device; • a first inlet opening (A1) formed through the housing (H) for inserting at least part of a nozzle (B) of an eye drop dispenser defining a first droplet dispensing axis (E1); • a viewing aperture (AV) formed through the housing (H) providing a viewing axis (EV) perpendicular to an aperture plane of the viewing aperture (AV); • said first droplet dispensing axis (E1) and said viewing axis (EV) are not coplanar; • said first droplet dispensing axis (E1) intersects said aperture plane (P) at a first intersection point (P1) and said viewing axis (EV) intersects the aperture plane (P) at a vision intersection point (PV), the separation between said first inlet opening (A1) and said viewing aperture (AV) being greater than the distance between the first intersection point (P1) and the vision intersection point (PV).
A cosmetic active substance characterized in that it is the product obtained through bioconversion by Lactobacillus arizonensis of Simmondsia chinensis.
Method for controlling a robot movement of a robot on the basis of a second trajectory, comprising the following method steps: a) calculating a viscosity volume model for modelling a first working environment of the robot, wherein - the viscosity volume model comprises first spatial regions with first different viscosities; - the first regions are determined on the basis of first characteristics of the robot and of the first working environment ; b) defining a first trajectory for the robot ; c) exciting a simulated liquid in the viscosity volume model to move along the first trajectory, wherein the excited liquid has a flow; d) detecting a liquid element in the excited liquid at a start of the first trajectory; e) detecting a covered path of the element in the excited simulated liquid in the viscosity volume model, wherein a flow direction of the simulated liquid through the first regions is determined; f) storing the covered path as the second trajectory; g) controlling the robot movement on the basis of the second trajectory. a) calculating a viscosity volume model for modelling a first working environment of the robot, wherein - the viscosity volume model comprises first spatial regions with first different viscosities; - the first regions are determined on the basis of first characteristics of the robot and of the first working environment ; - the viscosity volume model comprises first spatial regions with first different viscosities; - the first regions are determined on the basis of first characteristics of the robot and of the first working environment ; b) defining a first trajectory for the robot ; c) exciting a simulated liquid in the viscosity volume model to move along the first trajectory, wherein the excited liquid has a flow; d) detecting a liquid element in the excited liquid at a start of the first trajectory; e) detecting a covered path of the element in the excited simulated liquid in the viscosity volume model, wherein a flow direction of the simulated liquid through the first regions is determined; f) storing the covered path as the second trajectory; g) controlling the robot movement on the basis of the second trajectory.
An energy curable composition comprising: a) greater than 10% (w/w) based on the total weight of the composition of one or more low molecular weight monomers having molecular weights of less than 1000 Daltons, and at least one polymerizable group; b) 0.5% to 50% (w/w) based on the total weight of the composition one or more aminoacrylates that are the Michael reaction products of polymerizable alkoxylated (meth)acrylated monomers or oligomers, with primary and/or secondary amines; i. wherein the alkoxylated (meth)acrylate monomers or oligomers have at least one alkoxylated chain, and at least 2 polymerizable groups per molecule; and ii. wherein the degree of alkoxylation per polymerizable group is greater than or equal to 2; and wherein the polymerizable alkoxylated (meth)acrylate monomer or oligomer used in the preparation of the aminoacrylate is an acrylate adduct of the alkoxylated derivative of trimethylol propane, pentaerythritol, dipentaerythritol, glycerol, neopentyl glycol, propylene glycol, or bisphenol. a) greater than 10% (w/w) based on the total weight of the composition of one or more low molecular weight monomers having molecular weights of less than 1000 Daltons, and at least one polymerizable group; b) 0.5% to 50% (w/w) based on the total weight of the composition one or more aminoacrylates that are the Michael reaction products of polymerizable alkoxylated (meth)acrylated monomers or oligomers, with primary and/or secondary amines; i. wherein the alkoxylated (meth)acrylate monomers or oligomers have at least one alkoxylated chain, and at least 2 polymerizable groups per molecule; and ii. wherein the degree of alkoxylation per polymerizable group is greater than or equal to 2; and wherein the polymerizable alkoxylated (meth)acrylate monomer or oligomer used in the preparation of the aminoacrylate is an acrylate adduct of the alkoxylated derivative of trimethylol propane, pentaerythritol, dipentaerythritol, glycerol, neopentyl glycol, propylene glycol, or bisphenol. i. wherein the alkoxylated (meth)acrylate monomers or oligomers have at least one alkoxylated chain, and at least 2 polymerizable groups per molecule; and ii. wherein the degree of alkoxylation per polymerizable group is greater than or equal to 2;
A method, in a wireless device, for operating in a wireless communications network and operable to communicate with radio network equipment in the wireless communications network, the method comprising: receiving a first downlink signal comprising information indicating a plurality of uplink access configurations, each uplink access configuration including a random access configuration; receiving a second downlink signal comprising an uplink access configuration index, using the uplink access configuration index to identify an uplink access configuration from among the indicated plurality of uplink access configurations, and transmitting to the wireless communications network a random access transmission according to the random access configuration included in the identified uplink access configuration; characterised in that the method further comprises: receiving, in response, in a first downlink subframe, a first Orthogonal Frequency-Division Multiplexing,OFDM, transmission formatted according to a first numerology and receiving, in a second downlink subframe, a second OFDM transmission formatted according to a second numerology, the second numerology differing from the first numerology, wherein the first numerology has a first subcarrier spacing and the second numerology has a second subcarrier spacing, the first subcarrier spacing differing from the second subcarrier spacing. receiving a first downlink signal comprising information indicating a plurality of uplink access configurations, each uplink access configuration including a random access configuration; receiving a second downlink signal comprising an uplink access configuration index, using the uplink access configuration index to identify an uplink access configuration from among the indicated plurality of uplink access configurations, and transmitting to the wireless communications network a random access transmission according to the random access configuration included in the identified uplink access configuration;
A method for producing a manure-derived cellulose acetate at atmospheric pressure, by separating manure into useful components, comprising the steps of: a. subjecting the manure to a flocculation treatment (wherein the flocculant optionally comprises of ferric chloride (FeCl 3 ) or aluminium sulfate (Al 2 (SO 4 ) 3 ) and a filtration treatment where fractions having different particle size are separated by using different mesh sizes to obtain solid fractions having a high lignocellulose content; b. pulping the manure-derived solid fractions with high lignocellulose content at atmospheric pressure with a monocarboxylic acid carrier solution (wherein the monocarboxylic acid optionally comprises of acetic acid) using a bleaching process comprising of ozone or a peroxyacid to produce a dissolving-grade cellulose pulp; c. acetylating the manure-derived dissolving-grade cellulose pulp with acetic anhydride and a catalyst (optionally comprising of sulfuric acid (H 2 SO 4 ) and sodium bisulfate (NaHSO 4 )) in the monocarboxylic acid carrier solution to produce cellulose acetate; d. extracting fermentable components from the different fractions of the manure to produce monocarboxylic acids for use in the monocarboxylic acid carrier solution. a. subjecting the manure to a flocculation treatment (wherein the flocculant optionally comprises of ferric chloride (FeCl 3 ) or aluminium sulfate (Al 2 (SO 4 ) 3 ) and a filtration treatment where fractions having different particle size are separated by using different mesh sizes to obtain solid fractions having a high lignocellulose content; b. pulping the manure-derived solid fractions with high lignocellulose content at atmospheric pressure with a monocarboxylic acid carrier solution (wherein the monocarboxylic acid optionally comprises of acetic acid) using a bleaching process comprising of ozone or a peroxyacid to produce a dissolving-grade cellulose pulp; c. acetylating the manure-derived dissolving-grade cellulose pulp with acetic anhydride and a catalyst (optionally comprising of sulfuric acid (H 2 SO 4 ) and sodium bisulfate (NaHSO 4 )) in the monocarboxylic acid carrier solution to produce cellulose acetate; d. extracting fermentable components from the different fractions of the manure to produce monocarboxylic acids for use in the monocarboxylic acid carrier solution.
A pharmaceutical composition comprising a compound that activates Tie-2 and 2-hydroxypropyl-beta cyclodextrin, for use in treating a condition, wherein the compound that activates Tie-2 is a compound of the formula: or a pharmaceutically-acceptable salt, or zwitterion thereof
A robotic driving system for rotating a steering wheel of a vehicle , the vehicle including an automated steering system , said robotic driving system comprising: a turntable defining a steering axis and configured to be mounted to the steering wheel of the vehicle such that said turntable and the steering wheel rotate concurrently about said steering axis ; a robot frame including a support member and configured to be mounted to the vehicle ; a transmission device coupled to said support member and operatively coupled to said turntable to transmit a steering torque (ST) to said turntable for rotating said turntable and the steering wheel ; a steering motor in driving engagement with said transmission device to generate and apply said steering torque ST to said transmission device ; characterized by : a load sensor mounted between said support member and said transmission device at a known distance (D) from said steering axis with said load sensor generating a load signal corresponding to a force (F) experienced between said transmission device and said support member ; and a controller in communication with said steering motor and said load sensor with said controller calculating a resistive torque (RT) experienced by said turntable based on said load signal and said known distance (D) from said steering axis , and said controller determining a compensatory torque (CT) to be applied to said steering torque (ST) based on said resistive torque RT) to compensate for forces induced by said robotic driving system for preventing an override of the automated steering system . a turntable defining a steering axis and configured to be mounted to the steering wheel of the vehicle such that said turntable and the steering wheel rotate concurrently about said steering axis ; a robot frame including a support member and configured to be mounted to the vehicle ; a transmission device coupled to said support member and operatively coupled to said turntable to transmit a steering torque (ST) to said turntable for rotating said turntable and the steering wheel ; a steering motor in driving engagement with said transmission device to generate and apply said steering torque ST to said transmission device ; a load sensor mounted between said support member and said transmission device at a known distance (D) from said steering axis with said load sensor generating a load signal corresponding to a force (F) experienced between said transmission device and said support member ; and a controller in communication with said steering motor and said load sensor with said controller calculating a resistive torque (RT) experienced by said turntable based on said load signal and said known distance (D) from said steering axis , and said controller determining a compensatory torque (CT) to be applied to said steering torque (ST) based on said resistive torque RT) to compensate for forces induced by said robotic driving system for preventing an override of the automated steering system .
A packaging intended to protect a consumer good, comprising on all or part of its inner surface a coating characterized in that the coating forms a mesh and is formed by depositing one or more inks according to a repeating pattern , said repeating pattern including a hexagon, ensuring the protection of the consumer good against artificial electromagnetic radiation, and in that the pattern is repeated so as to be present at least fifty times on all or part of the internal surface of the packaging.
A robot apparatus comprising: a plurality of robot arms (201, 211; 301, 311) each including an indication device (205, 215; 305, 315) having a first indicator characterized in that said first indicator is configured to indicate an operation state of at least one of the plurality of robot arms (201, 211; 301, 311) different from a respective robot arm (201, 211; 301, 311) on which each indication device is provided.
An apparatus for receiving an analyte, the apparatus comprising: a substrate holding assembly, the substrate holding assembly configured to receive a substrate and deliver an analyte to the substrate, the substrate holding assembly including a lower housing and an upper housing, , the lower housing and the upper housing movable relative to each other to secure the substrate between the lower and upper housings; a light guide fixed to the upper housing, the light guide including at least two branches arranged to direct light toward the lower housing; and a plurality of light emitters adjacent an end face of the light guide, the end face arranged with direct sight lines to the branches of the light guide, wherein the light guide includes a first side face including a plurality of first side facets , each first side facet is flat and oriented to reflect light from at least one of the light emitters to at least one of the branches of the light guide. a substrate holding assembly, the substrate holding assembly configured to receive a substrate and deliver an analyte to the substrate, the substrate holding assembly including a lower housing and an upper housing, , the lower housing and the upper housing movable relative to each other to secure the substrate between the lower and upper housings; a light guide fixed to the upper housing, the light guide including at least two branches arranged to direct light toward the lower housing; and a plurality of light emitters adjacent an end face of the light guide, the end face arranged with direct sight lines to the branches of the light guide, wherein the light guide includes a first side face including a plurality of first side facets , each first side facet is flat and oriented to reflect light from at least one of the light emitters to at least one of the branches of the light guide.
An access device, wherein the access device is a terminal device or a network device with a WiFi chip, the access device comprises: a construction module, configured to construct a beacon frame, wherein the beacon frame comprises a high efficiency, HE, capability element, the HE capability element comprises a field, and the field represents whether each of multiple guard interval lengths is supported by the access device; and a transceiver module, configured to broadcast the beacon frame and perform data communication with a terminal by using an available guard interval length supported by the access device and the terminal. a construction module, configured to construct a beacon frame, wherein the beacon frame comprises a high efficiency, HE, capability element, the HE capability element comprises a field, and the field represents whether each of multiple guard interval lengths is supported by the access device; and a transceiver module, configured to broadcast the beacon frame and perform data communication with a terminal by using an available guard interval length supported by the access device and the terminal.
A modular applicator to be inserted into a cavity of a patient for enabling a brachytherapy treatment, comprising a central element for defining an axis for a dose delivery pattern and one or more peripheral elements for contributing to the dose delivery pattern, wherein at least one of the one or more peripheral elements comprises a substantially tubular source guide for guiding a radioactive source with a proximal connection to a brachytherapy delivery device, wherein the central element is adapted with a slidable fixation mechanism comprising a core having one or more suitably formed surfaces for enabling attachment of the peripheral elements, the surfaces having the shape of a guide arranged to cooperate with a mating guide of the peripheral element, such that the peripheral element may be slid on the core , for slidably affixing the said peripheral elements to said core , characterized in that the surfaces having the shape of a guide provide a non-alterable pre-defined orientation between the guide and the mating guide for mounting the peripheral elements, to prevent a rotational displacement of the peripheral elements attached to the core with respect to the central element.
A cowling assembly for a rotorcraft , the cowling assembly comprising: a first fairing ; a second fairing hinged on the first fairing for articulation relative to the first fairing between a closed position, a first partially open maintenance position and a second fully open maintenance position, wherein the first and second fairing comprise an exterior and an interior surface when in the closed position; a latch blade disposed on the first fairing and projecting outwardly from the exterior surface of the first fairing , wherein the latch blade is oriented along a longitudinal direction of the rotorcraft and constructed to reduce drag; characterized in that the second fairing comprises an opening arranged such that the latch blade projects through the opening when the second fairing is opened into the second maintenance position; and a releasable locking mechanism disposed on the interior surface of the second fairing for locking the second fairing against the first fairing in the second maintenance position, the releasable locking mechanism comprising a latch having a latch pin which engages with a recess disposed on or in a part of the latch blade that projects through the opening when the second fairing is opened into the second maintenance position. a first fairing ; a second fairing hinged on the first fairing for articulation relative to the first fairing between a closed position, a first partially open maintenance position and a second fully open maintenance position, wherein the first and second fairing comprise an exterior and an interior surface when in the closed position; a latch blade disposed on the first fairing and projecting outwardly from the exterior surface of the first fairing , wherein the latch blade is oriented along a longitudinal direction of the rotorcraft and constructed to reduce drag; characterized in that the second fairing comprises an opening arranged such that the latch blade projects through the opening when the second fairing is opened into the second maintenance position; and a releasable locking mechanism disposed on the interior surface of the second fairing for locking the second fairing against the first fairing in the second maintenance position, the releasable locking mechanism comprising a latch having a latch pin which engages with a recess disposed on or in a part of the latch blade that projects through the opening when the second fairing is opened into the second maintenance position.
Method for determining a point spread function of an imaging system , characterised in that it comprises: for each position in a plurality of positions of a target in an optical field of said imaging system: acquiring an image of the target, referred to as the real image; obtaining a synthetic image of the target representing a digital model of the target adjusted to a zone of the real image corresponding to the target so that said model coincides with said zone; estimating the point spread function using the real image and the synthetic image; and calculating an optical transfer function by applying a Fourier transform to the point spread function; calculating an average optical transfer function from the optical transfer functions calculated for each position in the plurality of positions; and obtaining an average point spread function by applying an inverse Fourier transform to the average optical transfer function. acquiring an image of the target, referred to as the real image; obtaining a synthetic image of the target representing a digital model of the target adjusted to a zone of the real image corresponding to the target so that said model coincides with said zone; estimating the point spread function using the real image and the synthetic image; and calculating an optical transfer function by applying a Fourier transform to the point spread function; calculating an average optical transfer function from the optical transfer functions calculated for each position in the plurality of positions; and obtaining an average point spread function by applying an inverse Fourier transform to the average optical transfer function.