mhurhangee/patent-ind-claim-en huggingface dataset:
Image processing system (IPS), comprising: an input interface (IN) configured to receive an input image (IM) based on projection data (π) collected in a limited angle scan along different projection directions by an imaging apparatus (IA); a directional analyzer (DA) configured to compute a direction component for at least part of the voxels in the input image and produce a directional image in which computed directional components at respective positions in the input inage are encoded ; a directional discriminator (DD) configured to check, for each considered voxel, whether its computed directional component is along at least one of the projection directions or not, thereby discriminating border regions ; and a confidence map constructor (CC) configured to construct a confidence map based on the discriminated border regions. an input interface (IN) configured to receive an input image (IM) based on projection data (π) collected in a limited angle scan along different projection directions by an imaging apparatus (IA); a directional analyzer (DA) configured to compute a direction component for at least part of the voxels in the input image and produce a directional image in which computed directional components at respective positions in the input inage are encoded ; a directional discriminator (DD) configured to check, for each considered voxel, whether its computed directional component is along at least one of the projection directions or not, thereby discriminating border regions ; and a confidence map constructor (CC) configured to construct a confidence map based on the discriminated border regions.
An earphone , comprising: a housing arranged to receive a speaker, the housing having a front portion arranged to be inserted in a user's ear and a rear portion arranged to remain outside the user's ear, the front and rear portions aligned along a common horizontal axis , wherein the rear portion has a flat surface with a channel formed therein, and the channel sized to receive only one earphone cord and secure it therein, each end of the channel having an angled configuration with respect to the rear portion for facilitating insertion and removal of the earphone cord . a housing arranged to receive a speaker, the housing having a front portion arranged to be inserted in a user's ear and a rear portion arranged to remain outside the user's ear, the front and rear portions aligned along a common horizontal axis , wherein the rear portion has a flat surface with a channel formed therein, and the channel sized to receive only one earphone cord and secure it therein, each end of the channel having an angled configuration with respect to the rear portion for facilitating insertion and removal of the earphone cord .
A method for controlling a robot cleaner, the method comprising: acquiring, by a camera , an image; irradiating, by a light source , light toward a location the same as a location where the acquired image is captured; receiving, by a sensor , the light irradiated from the light source and reflected on an object; and processing an image received from the sensor to contain a distance value of an individual location; characterized in that , the method further comprising: supplementing the image received from the sensor with the image captured by the camera when a singularity is found, wherein distance values calculated in adjacent portions are discontinuous at the singularity. acquiring, by a camera , an image; irradiating, by a light source , light toward a location the same as a location where the acquired image is captured; receiving, by a sensor , the light irradiated from the light source and reflected on an object; and processing an image received from the sensor to contain a distance value of an individual location;
Device (1; 101) for thermally regulating at least one electronic component , said device (1; 101) having at least two circulation ducts for a heat transfer fluid which are arranged along a stacking axis (A1), and at least one heat transfer fluid manifold (7; 107) in fluidic communication with the circulation ducts , said at least one heat transfer fluid manifold (7; 107) has: - at least two fluidic connection portions (9; 109) respectively assembled at one end of a corresponding circulation duct , the fluidic connection portions (9; 109) respectively having at least one collar bordering an orifice , and characterized in that the manifold has - at least one hollow connector interposed between two fluidic connection portions along the stacking axis (A1), and having two opposite end sections mounted so as to be able to slide inside the collars of two facing fluidic connection portions (9; 109). - at least two fluidic connection portions (9; 109) respectively assembled at one end of a corresponding circulation duct , the fluidic connection portions (9; 109) respectively having at least one collar bordering an orifice , and characterized in that the manifold has - at least one hollow connector interposed between two fluidic connection portions along the stacking axis (A1), and having two opposite end sections mounted so as to be able to slide inside the collars of two facing fluidic connection portions (9; 109).
A composition comprising a population of nanoparticles having the empirical formula Culn x Ga 1-x S 2 wherein 0 ≤ x ≤ 1, wherein each nanoparticle comprises an organic ligand layer bound to the surface of the nanoparticle, and wherein the organic ligand layer consists essentially of thiols, wherein the thiols have a boiling point less than 100 °C.
A long fiber sheet molding compound, comprising: a first resin layer , a second resin layer and a hybrid layer ; the hybrid layer is disposed between the first resin layer and the second resin layer , and the hybrid layer is coupled to the first resin layer and the second resin layer ; the hybrid layer comprises an adhesion resin layer and a fiber mesh structure ; wherein the fiber mesh structure is covered by the adhesion resin layer , the fiber mesh structure is formed by a plurality of fiber silks being discontinuous and twisted to each other, and the fiber silks form a plurality fiber silk gaps therebetween; the fiber silk gaps are filled with the adhesion resin layer , and the fiber silks are covered by the adhesion resin layer ; an average length of the fiber silks is larger than or equal to 35mm; characterized in that the fiber silks are twisted to each other to have a non-directional distribution, wherein the non-directional distribution means that the fiber mesh structure is projected to a two-dimensional plane and projections of the fiber silks being projected to the two-dimensional plane disorderedly extend to arbitrary directions; and a total fiber content of the long fiber sheet molding compound is 5 wt% to 30 wt % in respect to the long fiber sheet molding compound . wherein the fiber mesh structure is covered by the adhesion resin layer , the fiber mesh structure is formed by a plurality of fiber silks being discontinuous and twisted to each other, and the fiber silks form a plurality fiber silk gaps therebetween; the fiber silk gaps are filled with the adhesion resin layer , and the fiber silks are covered by the adhesion resin layer ; an average length of the fiber silks is larger than or equal to 35mm; characterized in that the fiber silks are twisted to each other to have a non-directional distribution, wherein the non-directional distribution means that the fiber mesh structure is projected to a two-dimensional plane and projections of the fiber silks being projected to the two-dimensional plane disorderedly extend to arbitrary directions; and a total fiber content of the long fiber sheet molding compound is 5 wt% to 30 wt % in respect to the long fiber sheet molding compound .
Assistance device for an opening leaf of a motor vehicle , comprising: - a first structure intended to be fastened to a body or to an opening leaf of a motor vehicle , - a second structure comprising an anchoring point intended to be fastened to a power cylinder for assisting the closure and/or opening of an opening panel , the second structure being movable with respect to the first structure , characterized in that the second structure is mounted so as to be rotatable about an axis of rotation (Y2) with respect to the first structure, the anchoring point being off-centre with respect to said axis of rotation (Y2), and in that it comprises a spring between the first structure and the second structure , the spring being a spiral spring, the spring being successively loaded and relieved of load during a single opening and/or closing movement of the opening leaf. - a first structure intended to be fastened to a body or to an opening leaf of a motor vehicle , - a second structure comprising an anchoring point intended to be fastened to a power cylinder for assisting the closure and/or opening of an opening panel , the second structure being movable with respect to the first structure ,
An LED filament , comprising: a first LED filament portion comprising a plurality of first LEDs adapted to emit first LED filament light; a second LED filament portion parallel to the first LED filament portion and comprising a plurality of second LEDs adapted to emit second LED filament light; and at least one light-blocking wall arranged between the first LED filament portion and the second LED filament portion to reduce or prevent optical cross-talk between the first LEDs of the first LED filament portion and the second LEDs of the second LED filament portion, wherein the first LED filament portion comprises a first elongated carrier , wherein the second LED filament portion comprises a second elongated carrier , wherein the first elongated carrier is mechanically connected to the second elongated carrier by at least one non-transparent layer , and wherein said at least one light-blocking wall is formed by said at least one non-transparent layer . a first LED filament portion comprising a plurality of first LEDs adapted to emit first LED filament light; a second LED filament portion parallel to the first LED filament portion and comprising a plurality of second LEDs adapted to emit second LED filament light; and at least one light-blocking wall arranged between the first LED filament portion and the second LED filament portion to reduce or prevent optical cross-talk between the first LEDs of the first LED filament portion and the second LEDs of the second LED filament portion, wherein the first LED filament portion comprises a first elongated carrier , wherein the second LED filament portion comprises a second elongated carrier , wherein the first elongated carrier is mechanically connected to the second elongated carrier by at least one non-transparent layer , and wherein said at least one light-blocking wall is formed by said at least one non-transparent layer .
A timepiece comprising a case defined by an upper body and a lower body; a crystal attached to the upper body of said case; a case back positioned at the lower body of said case, wherein said case, crystal and case back form an integral unit for protecting and housing mechanical components required for functioning of the timepiece; and a removable member that surrounds the periphery of the case and is configured to fit onto the case by aligning the removable member atop of the case and compressing the removable member onto and against the case , wherein the removable member comprises an exterior side wall and an interior side wall, wherein the exterior side wall forms a periphery of the removable member and the interior side wall is configured to match the shape of the periphery of said case , said interior side wall comprises a first elevation along the top edge and a second elevation along the bottom edge the removable member being separable from the case manually without any tools independent of other components of the timepiece, characterized in that said case comprises a projection along the periphery thereof creating a top indented edge and a bottom indented edge along said periphery, wherein the first and second elevations of the interior side wall, and the top and bottom indented edges of the case are complementary such that the removable member securely interlocks with the case by way of said first and second elevations snapping into said top and bottom indented edges .
Arrangement for securing access to a modular unit arranged outside a safe of a device for handling notes of value, having a security element , which is fastened to a door of the safe , wherein the door can be opened and closed by a closing unit , wherein the security element restricts access to the modular unit when the safe door is closed and does not restrict access when the safe door is open, and having an indicator for recording tampering with the security element connected to the safe door . having a security element , which is fastened to a door of the safe , wherein the door can be opened and closed by a closing unit , wherein the security element restricts access to the modular unit when the safe door is closed and does not restrict access when the safe door is open, and having an indicator for recording tampering with the security element connected to the safe door .
Method for determining a flow rate v of a fluid flowing through an implanted vascular support system , comprising: (a) carrying out a first pulsed Doppler measurement at a first pulse repetition rate PRF 1 using an ultrasonic sensor of the support system , characterized by (b) carrying out a second pulsed Doppler measurement at a second pulse repetition rate PRF 2 > PRF 1 using the ultrasonic sensor of the support system , the second pulse repetition rate differing from the first pulse repetition rate, and ascertaining the flow rate using measurement results of the first pulsed Doppler measurement and the second pulsed Doppler measurement, by solving for integer n 1 , n 2 and a main component f 1 of the first pulsed Doppler measurement and a main component f 2 of the second pulsed Doppler measurement the following linear Diophantine equation n 1 ⋅ PRF 1 − n 2 ⋅ PRF 2 = f 1 − f 2 for the following boundary condition v < a ⋅ PRF 1 ⋅ c 0 2 f 0 assuming − a ≤ n 1 ≤ a and − b ≤ n 2 ≤ b , where a : = PRF 2 2 ⋅ ggT PRF 1 PRF 2 and b : = PRF 1 2 ⋅ ggT PRF 1 PRF 2 , and where f 0 is the ultrasonic transmission frequency of the ultrasonic sensor and c 0 is the speed of sound in the fluid. (a) carrying out a first pulsed Doppler measurement at a first pulse repetition rate PRF 1 using an ultrasonic sensor of the support system , characterized by (b) carrying out a second pulsed Doppler measurement at a second pulse repetition rate PRF 2 > PRF 1 using the ultrasonic sensor of the support system , the second pulse repetition rate differing from the first pulse repetition rate, and ascertaining the flow rate using measurement results of the first pulsed Doppler measurement and the second pulsed Doppler measurement, by solving for integer n 1 , n 2 and a main component f 1 of the first pulsed Doppler measurement and a main component f 2 of the second pulsed Doppler measurement the following linear Diophantine equation n 1 ⋅ PRF 1 − n 2 ⋅ PRF 2 = f 1 − f 2 for the following boundary condition v < a ⋅ PRF 1 ⋅ c 0 2 f 0 assuming − a ≤ n 1 ≤ a and − b ≤ n 2 ≤ b , where a : = PRF 2 2 ⋅ ggT PRF 1 PRF 2 and b : = PRF 1 2 ⋅ ggT PRF 1 PRF 2 , and where f 0 is the ultrasonic transmission frequency of the ultrasonic sensor and c 0 is the speed of sound in the fluid. ascertaining the flow rate using measurement results of the first pulsed Doppler measurement and the second pulsed Doppler measurement, by solving for integer n 1 , n 2 and a main component f 1 of the first pulsed Doppler measurement and a main component f 2 of the second pulsed Doppler measurement the following linear Diophantine equation n 1 ⋅ PRF 1 − n 2 ⋅ PRF 2 = f 1 − f 2 for the following boundary condition v < a ⋅ PRF 1 ⋅ c 0 2 f 0 assuming − a ≤ n 1 ≤ a and − b ≤ n 2 ≤ b , where a : = PRF 2 2 ⋅ ggT PRF 1 PRF 2 and b : = PRF 1 2 ⋅ ggT PRF 1 PRF 2 , and where f 0 is the ultrasonic transmission frequency of the ultrasonic sensor and c 0 is the speed of sound in the fluid.
Sensor apparatus for detecting at least one flow property of a fluid medium, comprising at least one sensor housing , wherein at least one electronics module with at least one flow sensor for detecting the flow property is accommodated in the sensor housing , wherein the electronics module is at least partially accommodated in an electronics compartment , wherein at least one moisture sensor is furthermore accommodated within the sensor housing , wherein the sensor housing has at least one inlet opening for applying moisture from the fluid medium to the moisture sensor , and wherein the electronics compartment is sealed off from the inlet opening and the electronics module has the moisture sensor , characterized in that a gel is provided in the electronics compartment , wherein the gel at least partially covers the electronics module and an electronics compartment cover has a projection which projects in the direction of the electronics compartment , wherein the projection delimits the inlet opening , wherein the projection extends into the gel .
A process for producing a ski shoe or a part of a ski shoe, comprising the steps of (A) providing a composition comprising (i) a thermoplastic polyurethane (TPU-1) obtained or obtainable by reaction of an isocyanate composition (IZ) comprising MDI with a polyol composition (PZ), wherein the polyol composition (PZ) comprises at least one polyol (P1) selected from polytetrahydrofurans having an average molecular weight Mn in the range from 1200 to 2000 g/mol and a chain extender (KV1), selected from the group consisting of 1,2-ethandiol, 1,3-propanediol, 1,4-butanediol and 1,6-hexanediol; and (ii) hollow glass microspheres; wherein the composition comprises the microspheres in an amount of from 1 to 25 weight % based on the sum of the components (i) and (ii); (B) producing a ski shoe or a part of a ski shoe from the composition provided according to step (A). (A) providing a composition comprising (i) a thermoplastic polyurethane (TPU-1) obtained or obtainable by reaction of an isocyanate composition (IZ) comprising MDI with a polyol composition (PZ), wherein the polyol composition (PZ) comprises at least one polyol (P1) selected from polytetrahydrofurans having an average molecular weight Mn in the range from 1200 to 2000 g/mol and a chain extender (KV1), selected from the group consisting of 1,2-ethandiol, 1,3-propanediol, 1,4-butanediol and 1,6-hexanediol; and (ii) hollow glass microspheres; wherein the composition comprises the microspheres in an amount of from 1 to 25 weight % based on the sum of the components (i) and (ii); (i) a thermoplastic polyurethane (TPU-1) obtained or obtainable by reaction of an isocyanate composition (IZ) comprising MDI with a polyol composition (PZ), wherein the polyol composition (PZ) comprises at least one polyol (P1) selected from polytetrahydrofurans having an average molecular weight Mn in the range from 1200 to 2000 g/mol and a chain extender (KV1), selected from the group consisting of 1,2-ethandiol, 1,3-propanediol, 1,4-butanediol and 1,6-hexanediol; and (ii) hollow glass microspheres; (B) producing a ski shoe or a part of a ski shoe from the composition provided according to step (A).
A cache comprising: a p (rows) x q (columns) array of memory units ; a row addressing unit; and a column addressing unit; wherein each memory unit has an m (rows) x n (columns) array of memory cells (B0-B15); wherein the column addressing unit has, for each memory unit , m n -to-one multiplexers , one associated with each of the m rows of the memory unit , wherein each n-to-one multiplexer has an input coupled to each of the n memory cells (B0-B15) associated with the row associated with that multiplexer ; wherein the row addressing unit has, for each memory unit , n m-to-one multiplexers , one associated with each of the n columns of the memory unit , wherein each m-to-one multiplexer has an input coupled to each of the m memory cells (B0-B15) associated with the column associated with that multiplexer , and wherein the row addressing unit and column addressing unit support reading and/or writing of the array of memory units , such that multiple rows and/or columns of the array of memory units may be read and/or written in parallel. a p (rows) x q (columns) array of memory units ; a row addressing unit; and a column addressing unit; wherein each memory unit has an m (rows) x n (columns) array of memory cells (B0-B15); wherein the column addressing unit has, for each memory unit , m n -to-one multiplexers , one associated with each of the m rows of the memory unit , wherein each n-to-one multiplexer has an input coupled to each of the n memory cells (B0-B15) associated with the row associated with that multiplexer ; wherein the row addressing unit has, for each memory unit , n m-to-one multiplexers , one associated with each of the n columns of the memory unit , wherein each m-to-one multiplexer has an input coupled to each of the m memory cells (B0-B15) associated with the column associated with that multiplexer , and wherein the row addressing unit and column addressing unit support reading and/or writing of the array of memory units , such that multiple rows and/or columns of the array of memory units may be read and/or written in parallel.
Method for teaching positioning of a bar code scanner , comprising moving the bar code scanner relative to a first bar code so as to sweep a light beam emitted from the bar code scanner across the first bar code , detecting an orientation of the bar code scanner relative to the first bar code and positioning the bar code scanner based on the orientation, wherein the apparatus comprises a control device , wherein positioning of the bar code scanner includes determining an offset of the bar code scanner from a target position and compensating the offset by means of the control device , wherein the bar code scanner is mounted on a moveable device of an apparatus for processing a sample or reagent.
A deep fat fryer comprising: a housing , a pot adapted to contain a cooking medium, one or more heating elements , external to said pot , for heating a cooking medium contained in said pot , a temperature sensor adapted to measure the temperature of a cooking medium contained in said pot , a control unit , controlling the electrical components of the deep fat fryer , wherein the deep fat fryer comprises one or more heat-shield elements arranged for slowing down the heat transfer from said one or more heating elements to a cooking medium contained in said pot , wherein said pot comprises a box-shaped body open on the top, and wherein said one or more heating elements are arranged in such a way to at least partially face the external surface of said box-shaped body , characterized in that at least one of said one or more heat-shield elements is mounted on the external surface of said box-shaped body , in such a way to at least partially face at least one of said one or more heating elements . a housing , a pot adapted to contain a cooking medium, one or more heating elements , external to said pot , for heating a cooking medium contained in said pot , a temperature sensor adapted to measure the temperature of a cooking medium contained in said pot , a control unit , controlling the electrical components of the deep fat fryer , wherein the deep fat fryer comprises one or more heat-shield elements arranged for slowing down the heat transfer from said one or more heating elements to a cooking medium contained in said pot , wherein said pot comprises a box-shaped body open on the top, and wherein said one or more heating elements are arranged in such a way to at least partially face the external surface of said box-shaped body ,