mhurhangee/patent-ind-claim-en huggingface dataset:
An industrial vehicle comprising: an operator compartment comprising a floor configured for an operator to stand on, the floor having a front side , a left side extending from the front side , a right side extending from the front side and opposite the left side , and a rear side opposite the front side and extending between the left side and the right side ; and an operator presence detector , the operator presence detector comprising: a first detector located (a) proximate one side of the floor and (b) a distance above the floor , wherein a first detection field associated with the first detector extends between the one side of the floor and the side opposite the one side of the floor and wherein the first detector is configured to detect the presence of a left lower extremity of an operator standing in a position in the operator compartment ; and a second detector located (a) proximate either (i) the one side of the floor or (ii) proximate the side opposite the one side of the floor and (b) a distance above the floor , wherein a second detection field associated with the second detector extends between the one side of the floor and the side opposite the one side of the floor and wherein the second detector is configured to detect the presence of a right lower extremity of the operator standing in the position in the operator compartment ; characterized in that the first detector and the second detector are vertically spaced apart. an operator compartment comprising a floor configured for an operator to stand on, the floor having a front side , a left side extending from the front side , a right side extending from the front side and opposite the left side , and a rear side opposite the front side and extending between the left side and the right side ; and an operator presence detector , the operator presence detector comprising: a first detector located (a) proximate one side of the floor and (b) a distance above the floor , wherein a first detection field associated with the first detector extends between the one side of the floor and the side opposite the one side of the floor and wherein the first detector is configured to detect the presence of a left lower extremity of an operator standing in a position in the operator compartment ; and a second detector located (a) proximate either (i) the one side of the floor or (ii) proximate the side opposite the one side of the floor and (b) a distance above the floor , wherein a second detection field associated with the second detector extends between the one side of the floor and the side opposite the one side of the floor and wherein the second detector is configured to detect the presence of a right lower extremity of the operator standing in the position in the operator compartment ; characterized in that the first detector and the second detector are vertically spaced apart.
A method for the unambiguous identification of non-associated Wi-Fi devices, the method comprising: upon receiving , by an access point , a probe request containing a random MAC address from a Wi-Fi device not associated to the access point , sending a probe response addressed to the non-associated Wi-Fi device , wherein the probe response comprises a Hotspot 2.0 Indication element including a ANQP Domain ID field with a determined value; receiving , by the access point , an action frame sent by the non-associated Wi-Fi device in response to the Hotspot 2.0 Indication element of the probe response ; obtaining , by the access point , a static MAC address of the non-associated Wi-Fi device from a source address of the received action frame ; and identifying , by the access point , the non-associated Wi-Fi device based on the obtained static MAC address . upon receiving , by an access point , a probe request containing a random MAC address from a Wi-Fi device not associated to the access point , sending a probe response addressed to the non-associated Wi-Fi device , wherein the probe response comprises a Hotspot 2.0 Indication element including a ANQP Domain ID field with a determined value; receiving , by the access point , an action frame sent by the non-associated Wi-Fi device in response to the Hotspot 2.0 Indication element of the probe response ; obtaining , by the access point , a static MAC address of the non-associated Wi-Fi device from a source address of the received action frame ; and identifying , by the access point , the non-associated Wi-Fi device based on the obtained static MAC address .
An insertion instrument , comprising: a needle assembly having a helix-shaped needle and a body ; a slide component in which the body of the needle assembly is at least partially disposed; a trigger lever coupled to the slide component ; and a rear handle , wherein linearly translating the trigger lever toward the rear handle causes translation of the slide component rearward which causes the helix-shaped needle to rotate, characterised in that the helix-shaped needle does not translate with reference to the rear handle when the helix-shaped needle is rotated. a needle assembly having a helix-shaped needle and a body ; a slide component in which the body of the needle assembly is at least partially disposed; a trigger lever coupled to the slide component ; and a rear handle , wherein linearly translating the trigger lever toward the rear handle causes translation of the slide component rearward which causes the helix-shaped needle to rotate, characterised in that the helix-shaped needle does not translate with reference to the rear handle when the helix-shaped needle is rotated.
A composition comprising at least the following: polymer particles comprising a coating on at least a portion of the total surface of the polymer particles, and wherein the coating is formed from a powder composition comprising: at least one inorganic powder selected from the group consisting of the following: talc, mica, calcium carbonate, and combinations thereof; and at least one metal stearate powder, wherein the weight ratio of the total amount of the inorganic powder to the total amount of the metal stearate powder is from 3.0 to 50.0. talc, mica, calcium carbonate, and combinations thereof; and at least one metal stearate powder, wherein the weight ratio of the total amount of the inorganic powder to the total amount of the metal stearate powder is from 3.0 to 50.0.
A powdered material (M) for additive manufacturing, having a d 50 -value ranging between 10 and 100 μm, as measured by laser scattering in isopropanol, comprising: - one polymeric component (P) comprising at least one poly(arylene sulfide) (PAS) polymer, comprising recurring units p, q and r according of formula (I), (II) and (III): wherein ▪ n p , n q and n r are respectively the mole % of each recurring units p, q and r; ▪ recurring units p, q and r are arranged in blocks, in alternation or random ly; ▪ 1 % ≤ n q + n r / n p + n q + n r ≤ 12 % ; ▪ n q is ≥ 0% and n r is ≥ 0%; ▪ j is zero or an integer varying between 1 and 4; ▪ R 1 is selected from the group consisting of halogen atoms, C 1 -C 12 alkyl groups, C 7 -C 24 alkylaryl groups, C 7 -C 24 aralkyl groups, C 6 -C 24 arylene groups, C 1 -C 12 alkoxy groups, and C 6 -C 18 aryloxy groups, - optionally one or several flow agent(s) (F), - optionally one or several additive(s) (A) selected from the group consisting of lubricants, heat stabilizers, light stabilizers, antioxidants, pigments, processing aids, dyes, fillers, nanofillers or electromagnetic absorbers and flame retardants. - one polymeric component (P) comprising at least one poly(arylene sulfide) (PAS) polymer, comprising recurring units p, q and r according of formula (I), (II) and (III): wherein ▪ n p , n q and n r are respectively the mole % of each recurring units p, q and r; ▪ recurring units p, q and r are arranged in blocks, in alternation or random ly; ▪ 1 % ≤ n q + n r / n p + n q + n r ≤ 12 % ; ▪ n q is ≥ 0% and n r is ≥ 0%; ▪ j is zero or an integer varying between 1 and 4; ▪ R 1 is selected from the group consisting of halogen atoms, C 1 -C 12 alkyl groups, C 7 -C 24 alkylaryl groups, C 7 -C 24 aralkyl groups, C 6 -C 24 arylene groups, C 1 -C 12 alkoxy groups, and C 6 -C 18 aryloxy groups, ▪ n p , n q and n r are respectively the mole % of each recurring units p, q and r; ▪ recurring units p, q and r are arranged in blocks, in alternation or random ly; ▪ 1 % ≤ n q + n r / n p + n q + n r ≤ 12 % ; ▪ n q is ≥ 0% and n r is ≥ 0%; ▪ j is zero or an integer varying between 1 and 4; ▪ R 1 is selected from the group consisting of halogen atoms, C 1 -C 12 alkyl groups, C 7 -C 24 alkylaryl groups, C 7 -C 24 aralkyl groups, C 6 -C 24 arylene groups, C 1 -C 12 alkoxy groups, and C 6 -C 18 aryloxy groups, - optionally one or several flow agent(s) (F), - optionally one or several additive(s) (A) selected from the group consisting of lubricants, heat stabilizers, light stabilizers, antioxidants, pigments, processing aids, dyes, fillers, nanofillers or electromagnetic absorbers and flame retardants.
Method for identifying and verifying control software of a rail vehicle, - in which the control software is formed by functions (FKT_1, ...), wherein each function (FKT_1, ...) performs a task respectively assigned thereto, - in which the functions (FKT_1, ...), in their interconnected entirety, form a structure (STR) of the control software, - in which a function-dependent checksum (HFKT_1, ...) is created for each function (FKT_1, ...), - in which a structure-dependent checksum (HSTR) is created for the structure (STR), - in which an overall checksum (HGES) for the control software is created from the function-dependent checksums (HFKT_1, ...) and from the structure-dependent checksum (HSTR), - such that the overall checksum (HGES) identifies and verifies the control software for authorization in a country (EU, ZLL). - in which the control software is formed by functions (FKT_1, ...), wherein each function (FKT_1, ...) performs a task respectively assigned thereto, - in which the functions (FKT_1, ...), in their interconnected entirety, form a structure (STR) of the control software, - in which a function-dependent checksum (HFKT_1, ...) is created for each function (FKT_1, ...), - in which a structure-dependent checksum (HSTR) is created for the structure (STR), - in which an overall checksum (HGES) for the control software is created from the function-dependent checksums (HFKT_1, ...) and from the structure-dependent checksum (HSTR), - such that the overall checksum (HGES) identifies and verifies the control software for authorization in a country (EU, ZLL).
A signal processing device configured to be worn on at least one ear of a user, the signal processing device having a noise canceling function automatically selecting filter characteristics based on continuous frequency analysis, comprising: a housing ; a microphone inputting an ambient noise signal representative of sound; and a signal processing unit to: analyze a frequency component of the ambient noise signal while executing a first filter processing with a first filter characteristic; select a second filter characteristic of the filter based on the analysis of the frequency component of the ambient noise signal; and control outputs of filter processing to switch gradually from the first filter processing to a second filter processing with the second filter characteristic by increasing an output associated with the second filter processing while decreasing an output associated with the first filter processing. a housing ; a microphone inputting an ambient noise signal representative of sound; and a signal processing unit to: analyze a frequency component of the ambient noise signal while executing a first filter processing with a first filter characteristic; select a second filter characteristic of the filter based on the analysis of the frequency component of the ambient noise signal; and control outputs of filter processing to switch gradually from the first filter processing to a second filter processing with the second filter characteristic by increasing an output associated with the second filter processing while decreasing an output associated with the first filter processing. analyze a frequency component of the ambient noise signal while executing a first filter processing with a first filter characteristic; select a second filter characteristic of the filter based on the analysis of the frequency component of the ambient noise signal; and control outputs of filter processing to switch gradually from the first filter processing to a second filter processing with the second filter characteristic by increasing an output associated with the second filter processing while decreasing an output associated with the first filter processing.
A computer-implemented method for automated characterization of solid tumors in mammalian tissue, using medical imaging, the method comprising: (a) acquiring a sequence of images of mammalian tissue, captured with a medical imager using a Dynamic Contrast Enhanced (DCE) imaging protocol; (b) performing image registration of the sequence of images to align the sequence of images and compensate for at least one of the following: patient movements, respiration movement, and gravity effects; (c) if a solid tumor is present, detecting a contour of said solid tumor in each one of said post-contrast images, among said sequence of images; (d) dividing said contours to segments, and matching segments that are related to different images, in the sequence of images; (e) calculating a displacement of the contrast material of the DCE protocol between each of said matched segments; (f) fitting said displacements to a fluid flow model, and extracting for each segment, an estimation of the interstitial fluid velocity; (g) conditioned upon one or more of said estimations of said interstitial fluid velocity of said segments, calculating and reporting a characterization of the solid tumor, wherein said characterization comprises an assessment for at least one of or any combination of: • the tumor or peri-tumor interstitial fluid velocity, • the tumor interstitial fluid pressure, • the tumor drug delivery efficiency, or • the tumor prognostic or metastasis risk. (a) acquiring a sequence of images of mammalian tissue, captured with a medical imager using a Dynamic Contrast Enhanced (DCE) imaging protocol; (b) performing image registration of the sequence of images to align the sequence of images and compensate for at least one of the following: patient movements, respiration movement, and gravity effects; (c) if a solid tumor is present, detecting a contour of said solid tumor in each one of said post-contrast images, among said sequence of images; (d) dividing said contours to segments, and matching segments that are related to different images, in the sequence of images; (e) calculating a displacement of the contrast material of the DCE protocol between each of said matched segments; (f) fitting said displacements to a fluid flow model, and extracting for each segment, an estimation of the interstitial fluid velocity; (g) conditioned upon one or more of said estimations of said interstitial fluid velocity of said segments, calculating and reporting a characterization of the solid tumor, wherein said characterization comprises an assessment for at least one of or any combination of: • the tumor or peri-tumor interstitial fluid velocity, • the tumor interstitial fluid pressure, • the tumor drug delivery efficiency, or • the tumor prognostic or metastasis risk. • the tumor or peri-tumor interstitial fluid velocity, • the tumor interstitial fluid pressure, • the tumor drug delivery efficiency, or • the tumor prognostic or metastasis risk.
A moving robot comprising: a voice input unit configured to receive a voice input of a user; a first display capable of receiving a touch input; a second display larger than the first display ; and a controller configured to perform control such that a screen to be displayed in response to the voice input or the touch input is displayed selectively on at least one of the first display or the second display based on a type and an amount of information included in the screen, wherein the controller is further configured to display predetermined information on the first display or the second display based on a distance to the user. a voice input unit configured to receive a voice input of a user; a first display capable of receiving a touch input; a second display larger than the first display ; and a controller configured to perform control such that a screen to be displayed in response to the voice input or the touch input is displayed selectively on at least one of the first display or the second display based on a type and an amount of information included in the screen, wherein the controller is further configured to display predetermined information on the first display or the second display based on a distance to the user.
An information processing apparatus, comprising: a data acquisition unit configured to acquire solar radiation. amount data indicating an amount of solar radiation to a greenhouse measured by a solar radiation amount sensor and relative humidity data indicating a relative humidity in the greenhouse; and an estimation unit , characterised in that the estimation unit is configured to estimate a dew condensation state in a cultivated product in the greenhouse based on the solar radiation amount data and the relative humidity data. a data acquisition unit configured to acquire solar radiation. amount data indicating an amount of solar radiation to a greenhouse measured by a solar radiation amount sensor and relative humidity data indicating a relative humidity in the greenhouse; and an estimation unit , characterised in that the estimation unit is configured to estimate a dew condensation state in a cultivated product in the greenhouse based on the solar radiation amount data and the relative humidity data.
A rearing method of producing an aquaculture shrimp with long unbroken second antennae being longer than the body length carried out by land-farming in an overcrowded state, comprising giving feed containing greater than or equal to 50 ppm of astaxanthin, wherein the shrimp is classified in the superfamily Penaeoidea of order Decapoda.
Method for producing a plastic container by internal pressure molding, comprising the steps of: - arranging a tubular preform between the tool parts of a molding tool formed with a tool cavity ; - closing the molding tool , and molding or pre-molding a container from the preform by means of internal pressure, wherein a circumferential portion of the preform is pressed through a tool gap into a chamber surrounding the tool cavity and, in this chamber , is pressed against claw pairs with fixed inner retaining claws and movable outer tear-off claws ; - moving the outer tear-off claws laterally, wherein the outer tear-off claws are moved transverse to the closing direction or closing axis of the molding tool or of the tool parts , whereby the circumferential portion between the outer tear-off claws and the inner tear-off claws is torn open and the container is divided into two container halves . - arranging a tubular preform between the tool parts of a molding tool formed with a tool cavity ; - closing the molding tool , and molding or pre-molding a container from the preform by means of internal pressure, wherein a circumferential portion of the preform is pressed through a tool gap into a chamber surrounding the tool cavity and, in this chamber , is pressed against claw pairs with fixed inner retaining claws and movable outer tear-off claws ; - moving the outer tear-off claws laterally, wherein the outer tear-off claws are moved transverse to the closing direction or closing axis of the molding tool or of the tool parts ,
A monitored circuit breaker comprising: a switch gear including an opening/closing mechanism adapted to selectively open and close an electrical circuit, the opening/closing mechanism comprising a pivotally mounted shaft configured to rotate about a pivot axis as the opening/closing mechanism moves between an open and a closed state; a plurality of magnets spaced from each other and fixedly attached to the shaft; a magnetic field sensor configured to sense a magnetic field generated by each magnet of the plurality of magnets as the shaft pivots, wherein each magnet of the plurality of magnets defines a different angular position of the shaft in which the magnetic field sensor senses a respective magnet of the plurality magnets; a processing circuitry configured to compute a first angular speed of the shaft based on signals provided by the magnetic field sensor when it senses a magnetic field generated by at least two magnets of the plurality of magnets as the shaft pivots in one direction. a switch gear including an opening/closing mechanism adapted to selectively open and close an electrical circuit, the opening/closing mechanism comprising a pivotally mounted shaft configured to rotate about a pivot axis as the opening/closing mechanism moves between an open and a closed state; a plurality of magnets spaced from each other and fixedly attached to the shaft; a magnetic field sensor configured to sense a magnetic field generated by each magnet of the plurality of magnets as the shaft pivots, wherein each magnet of the plurality of magnets defines a different angular position of the shaft in which the magnetic field sensor senses a respective magnet of the plurality magnets; a processing circuitry configured to compute a first angular speed of the shaft based on signals provided by the magnetic field sensor when it senses a magnetic field generated by at least two magnets of the plurality of magnets as the shaft pivots in one direction.
An ocular lens comprising a hydrogel polymer comprising polymerised residues derived from a polymerisable UV absorber of formula (I): U-L-Py (I) wherein: U is a UV absorbing moiety; L is a hydrophilic non-polyalkylene glycol linker comprising an anionic, a zwitterionic or a saccharide moiety; and Py is an ethylenically unsaturated polymerisable moiety. U is a UV absorbing moiety; L is a hydrophilic non-polyalkylene glycol linker comprising an anionic, a zwitterionic or a saccharide moiety; and Py is an ethylenically unsaturated polymerisable moiety.