mhurhangee/patent-ind-claim-en huggingface dataset:
A moulding assembly for manufacturing a shell part of a wind turbine blade, the moulding assembly comprising a blade mould for moulding the shell part, the blade mould comprising a moulding cavity , a gripping device for releasably engaging a preform for the shell part, a lifting device , wherein the gripping device is connected to the lifting device , a tensionable member with a proximal end and an opposing distal end , the proximal end of the tensionable member being releasably attachable to the blade mould , and the distal end of the tensionable member being coupled to the gripping device, and a tensioning unit engaged to the tensionable member for creating and maintaining tension on the tensionable member. a blade mould for moulding the shell part, the blade mould comprising a moulding cavity , a gripping device for releasably engaging a preform for the shell part, a lifting device , wherein the gripping device is connected to the lifting device , a tensionable member with a proximal end and an opposing distal end , the proximal end of the tensionable member being releasably attachable to the blade mould , and the distal end of the tensionable member being coupled to the gripping device, and a tensioning unit engaged to the tensionable member for creating and maintaining tension on the tensionable member.
A sprocket consisting of individual metallic sprocket segments each having at least one toothing, characterised in that each sprocket segment is at least one die-forged piece, each die-forged piece has the basic shape of a cuboid curved along its length, the cuboid has a material cut-out in the centre of one of its curved edges , the surface delimiting the material cut-out is concavely curved at least in some sections, and each die-forged piece has post-machined connection faces .
A method of preparing a converted cannabinol (CBN)-concentrate by converting tetrahydrocannabinol (THC) in a THC extract to CBN, comprising: preparing a THC extract which is a THC concentrate by: (a) concentrating glandular trichomes from Cannabis plant material; (b) passing a solvent though said plant material to produce a cannabinoid/terpenoid-containing eluate; (c) filtering solids from the eluate; and (d) refining the eluate to remove undesirable impurities; and further (e) contacting said THC extract with an oxidizing agent under conditions such that THC is oxidized to CBN; and (f) allowing sufficient time for said oxidizing agent to react with said THC extract such that THC is converted to one or more CBN-type cannabinoids to provide a converted-CBN extract; wherein from about 10 to about 95% of THC in said THC extract is converted to a CBN-type cannabinoid. preparing a THC extract which is a THC concentrate by: (a) concentrating glandular trichomes from Cannabis plant material; (b) passing a solvent though said plant material to produce a cannabinoid/terpenoid-containing eluate; (c) filtering solids from the eluate; and (d) refining the eluate to remove undesirable impurities; (a) concentrating glandular trichomes from Cannabis plant material; (b) passing a solvent though said plant material to produce a cannabinoid/terpenoid-containing eluate; (c) filtering solids from the eluate; and (d) refining the eluate to remove undesirable impurities; and further (e) contacting said THC extract with an oxidizing agent under conditions such that THC is oxidized to CBN; and (f) allowing sufficient time for said oxidizing agent to react with said THC extract such that THC is converted to one or more CBN-type cannabinoids to provide a converted-CBN extract; wherein from about 10 to about 95% of THC in said THC extract is converted to a CBN-type cannabinoid. (e) contacting said THC extract with an oxidizing agent under conditions such that THC is oxidized to CBN; and (f) allowing sufficient time for said oxidizing agent to react with said THC extract such that THC is converted to one or more CBN-type cannabinoids to provide a converted-CBN extract; wherein from about 10 to about 95% of THC in said THC extract is converted to a CBN-type cannabinoid.
A measurement system comprising a measurement device and at least a first probe unit and a second probe unit , the first probe unit and the second probe unit each being connected to the measurement device in a signal transmitting manner, at least one of the measurement device and the first probe unit comprising a control unit , the first probe unit comprising an interface module being configured to generate an input data signal and to provide the input data signal to the control unit , wherein a user can input data and/or commands via the interface module , characterized in that the control unit is configured to generate and provide a control signal at least to the second probe unit based on the input data signal. the first probe unit and the second probe unit each being connected to the measurement device in a signal transmitting manner, at least one of the measurement device and the first probe unit comprising a control unit , the first probe unit comprising an interface module being configured to generate an input data signal and to provide the input data signal to the control unit , wherein a user can input data and/or commands via the interface module , characterized in that the control unit is configured to generate and provide a control signal at least to the second probe unit based on the input data signal.
A scaled composite structure comprising: (i) a flexible base layer arrangement ; and (ii) a plurality of three-dimensional scales (202A-N) attached to the flexible base layer arrangement , wherein the plurality of 3D scales (202A-N) are overlapping when the scaled composite structure is placed on a planar surface, wherein a range of motion of the scaled composite structure is controlled through a size and a shape of each of the plurality of 3D scales (202A-N) such that the plurality of 3D scales (202A-N) are intersecting with each other when a limit of the range of motion is applied to the scaled composite structure , to provide a mechanical interlocking effect, characterised in that an intersection point between each two scales of the plurality of 3D scales (202A-N) in a row of scales disposed on the flexible base layer arrangement when curved to the limit of the range of motion determines the length of the of each of the plurality of 3D scales (202A-N) in the flexible base layer arrangement when curved to the limit of the range of motion. (i) a flexible base layer arrangement ; and (ii) a plurality of three-dimensional scales (202A-N) attached to the flexible base layer arrangement , wherein the plurality of 3D scales (202A-N) are overlapping when the scaled composite structure is placed on a planar surface, wherein a range of motion of the scaled composite structure is controlled through a size and a shape of each of the plurality of 3D scales (202A-N) such that the plurality of 3D scales (202A-N) are intersecting with each other when a limit of the range of motion is applied to the scaled composite structure , to provide a mechanical interlocking effect, characterised in that an intersection point between each two scales of the plurality of 3D scales (202A-N) in a row of scales disposed on the flexible base layer arrangement when curved to the limit of the range of motion determines the length of the of each of the plurality of 3D scales (202A-N) in the flexible base layer arrangement when curved to the limit of the range of motion. wherein a range of motion of the scaled composite structure is controlled through a size and a shape of each of the plurality of 3D scales (202A-N) such that the plurality of 3D scales (202A-N) are intersecting with each other when a limit of the range of motion is applied to the scaled composite structure , to provide a mechanical interlocking effect, characterised in that an intersection point between each two scales of the plurality of 3D scales (202A-N) in a row of scales disposed on the flexible base layer arrangement when curved to the limit of the range of motion determines the length of the of each of the plurality of 3D scales (202A-N) in the flexible base layer arrangement when curved to the limit of the range of motion.
A medical image processing device , comprising: - a receiving unit for receiving a first and a second medical image of an anatomical object of interest , wherein each of the first and the second medical images comprises a different field of view of the anatomical object of interest , and wherein the first medical image and the second medical image show a same anatomical state of the anatomical object of interest ; - a registration unit that is configured to determine a transformation from an image space of the second medical image to an image space of the first medical image ; - a transformation unit that is configured to transform the second medical image into the image space of the first medical image based on said transformation in order to receive a transformed second medical image ; and - a segmentation unit wherein the segmentation unit is configured to perform an overall segmentation of the anatomical object of interest that makes a separate use of both the first medical image and the transformed second medical image by identifying a first set of feature points of the anatomical object of interest within the first medical image and by identifying a second set of feature points of the anatomical object of interest within the transformed second medical image ; wherein one and the same segmentation model is simultaneously adapted to both the first medical image and the transformed second medical image by adapting the segmentation model simultaneously to both the first and the second set of feature points . - a receiving unit for receiving a first and a second medical image of an anatomical object of interest , wherein each of the first and the second medical images comprises a different field of view of the anatomical object of interest , and wherein the first medical image and the second medical image show a same anatomical state of the anatomical object of interest ; - a registration unit that is configured to determine a transformation from an image space of the second medical image to an image space of the first medical image ; - a transformation unit that is configured to transform the second medical image into the image space of the first medical image based on said transformation in order to receive a transformed second medical image ; and - a segmentation unit wherein the segmentation unit is configured to perform an overall segmentation of the anatomical object of interest that makes a separate use of both the first medical image and the transformed second medical image by identifying a first set of feature points of the anatomical object of interest within the first medical image and by identifying a second set of feature points of the anatomical object of interest within the transformed second medical image ; wherein one and the same segmentation model is simultaneously adapted to both the first medical image and the transformed second medical image by adapting the segmentation model simultaneously to both the first and the second set of feature points .
Subsea assembly comprising a housing having a flange interface for interfacing with a flange of a process fluid carrying component, characterized in that the housing is configured such that boltheads or nuts exerting a fastening force on the subsea assembly when mounted to the process fluid carrying component are spaced from the flange interface so that the dimensions of the housing of the subsea assembly at the flange interface are not affected by a space required for a bolthead or nut fastening tool, wherein the flange interface is provided at a first end of the housing and wherein the boltheads or nuts exerting the fastening force on the subsea assembly when mounted to the process fluid carrying component are provided at a second end of the housing opposite of the first end of the housing.
An audio reproduction method comprising: receiving a multi-channel audio signal and additional information including a reproduction location of the multi-channel audio signal; acquiring location information of a user; channel-separating the received multi-channel audio signal based on the received additional information; rendering the channel-separated multi-channel audio signal based on the received additional information and the acquired location information of the user; and reproducing the rendered multi-channel audio signal, wherein the channel-separating comprises separating channels based on coherence between channel signals included in the multi-channel audio signal and the additional information. receiving a multi-channel audio signal and additional information including a reproduction location of the multi-channel audio signal; acquiring location information of a user; channel-separating the received multi-channel audio signal based on the received additional information; rendering the channel-separated multi-channel audio signal based on the received additional information and the acquired location information of the user; and reproducing the rendered multi-channel audio signal, wherein the channel-separating comprises separating channels based on coherence between channel signals included in the multi-channel audio signal and the additional information.
A system for treating mucosal tissue from a small intestine of a patient, said system comprising: an elongate tube comprising a shaft having a distal portion; a treatment element (320; 321) positioned on the distal portion of the shaft , said treatment element configured to treat the mucosal tissue; and means for delivering a fluid into submucosal tissue to expand said submucosal tissue circumferentially to increase a target treatment area, the target treatment area including the mucosal tissue on the small intestine to be treated by the treatment element; wherein the treatment element (320; 321) is configured to treat mucosal tissue on the small intestine; and wherein the treatment element (320; 321) comprises an expandable balloon including hot steam. an elongate tube comprising a shaft having a distal portion; a treatment element (320; 321) positioned on the distal portion of the shaft , said treatment element configured to treat the mucosal tissue; and means for delivering a fluid into submucosal tissue to expand said submucosal tissue circumferentially to increase a target treatment area, the target treatment area including the mucosal tissue on the small intestine to be treated by the treatment element; wherein the treatment element (320; 321) is configured to treat mucosal tissue on the small intestine; and wherein the treatment element (320; 321) comprises an expandable balloon including hot steam.
An influenza vaccine composition comprising: (a) a therapeutically effective amount of an influenza virus-like particle (VLP) comprising: (i) influenza M1, influenza M2, influenza hemagglutinin (HA), and influenza neuraminidase (NA) proteins; and (b) adjuvants comprising: a recombinant capsid VP3 protein (rVP3) of foot-and-mouth disease virus; and alum. (a) a therapeutically effective amount of an influenza virus-like particle (VLP) comprising: (i) influenza M1, influenza M2, influenza hemagglutinin (HA), and influenza neuraminidase (NA) proteins; and (i) influenza M1, influenza M2, influenza hemagglutinin (HA), and influenza neuraminidase (NA) proteins; and (b) adjuvants comprising: a recombinant capsid VP3 protein (rVP3) of foot-and-mouth disease virus; and alum. a recombinant capsid VP3 protein (rVP3) of foot-and-mouth disease virus; and alum.
An optical system comprising: a light source ; an illumination optical system ; and an optical modulator , the illumination optical system being configured to emit the light to the optical modulator and including: a lens array (14A and 14B); a lens , the lens array (14A and 14B) and the lens being arranged in that order from an upstream side of an optical path of light emitted from the light source; and a light shield disposed at the upstream side relative to the lens in the optical path, the light shield configured to block some light rays of the light incident within a range of an effective diameter of the lens , the optical modulator configured to emit the light incident on the optical modulator toward a first direction and a second direction different from the first direction, wherein a center of an effective diameter of the lens array (14A and 14B) is offset from a center of the effective diameter of the lens to an opposite side of the light shield in a direction orthogonal to an optical axis of the illumination optical system . a light source ; an illumination optical system ; and an optical modulator , the illumination optical system being configured to emit the light to the optical modulator and including: a lens array (14A and 14B); a lens , the lens array (14A and 14B) and the lens being arranged in that order from an upstream side of an optical path of light emitted from the light source; and a light shield disposed at the upstream side relative to the lens in the optical path, the light shield configured to block some light rays of the light incident within a range of an effective diameter of the lens , the optical modulator configured to emit the light incident on the optical modulator toward a first direction and a second direction different from the first direction, wherein a center of an effective diameter of the lens array (14A and 14B) is offset from a center of the effective diameter of the lens to an opposite side of the light shield in a direction orthogonal to an optical axis of the illumination optical system . a lens array (14A and 14B); a lens , the lens array (14A and 14B) and the lens being arranged in that order from an upstream side of an optical path of light emitted from the light source; and a light shield disposed at the upstream side relative to the lens in the optical path, the light shield configured to block some light rays of the light incident within a range of an effective diameter of the lens , the optical modulator configured to emit the light incident on the optical modulator toward a first direction and a second direction different from the first direction, wherein a center of an effective diameter of the lens array (14A and 14B) is offset from a center of the effective diameter of the lens to an opposite side of the light shield in a direction orthogonal to an optical axis of the illumination optical system .
An imaging optical system comprising: a first optical unit having positive refractive power for making an image at an image plane at an enlargement-side of the imaging optical system and an intermediate image at an intermediate image position in the imaging optical system conjugate to each other; and a second optical unit having positive refractive power for making the intermediate image and an image at an image plane at a reduction-side of the imaging optical system conjugate to each other, characterized in that , when a focal length of the first optical unit is denoted by fF and a focal length of the second optical unit is denoted by fR, the following condition is satisfied: 0.0 < fF / fR < 0.8 , and the second optical unit comprises a negative lens (L11) disposed on the optical axis closest to the enlargement side, and the first optical unit comprises a cemented lens (SL1) obtained by cementing three lenses. a first optical unit having positive refractive power for making an image at an image plane at an enlargement-side of the imaging optical system and an intermediate image at an intermediate image position in the imaging optical system conjugate to each other; and a second optical unit having positive refractive power for making the intermediate image and an image at an image plane at a reduction-side of the imaging optical system conjugate to each other, characterized in that , when a focal length of the first optical unit is denoted by fF and a focal length of the second optical unit is denoted by fR, the following condition is satisfied: 0.0 < fF / fR < 0.8 , and the second optical unit comprises a negative lens (L11) disposed on the optical axis closest to the enlargement side, and the first optical unit comprises a cemented lens (SL1) obtained by cementing three lenses.
An apparatus comprising means for: determining an available real space , comprising a portion of a real space , by determining a boundary of the available real space , wherein the available real space comprises locations available to a user to control a corresponding virtual location of a virtual user , via first-person perspective-mediated reality, wherein first-person perspective-mediated reality creates a correspondence between a location and orientation of a user in real space to a virtual location and virtual orientation of a virtual user; determining a constrained virtual space , comprising a portion of a virtual space , by determining a boundary of the constrained virtual space , wherein the constrained virtual space corresponds to the available real space; determining available mediated reality content which comprises multiple representations of the virtual space when observed from multiple virtual locations within the constrained virtual space; automatically determining a sub-set of the available mediated reality content which comprises multiple representations of the virtual space when observed from multiple virtual locations within the constrained virtual space, without requiring the user to change location in the real space; and causing rendering of at least some of the determined sub-set of the available virtual reality content which comprises multiple representations of the virtual space when observed from multiple virtual locations within the constrained virtual space to the user. determining an available real space , comprising a portion of a real space , by determining a boundary of the available real space , wherein the available real space comprises locations available to a user to control a corresponding virtual location of a virtual user , via first-person perspective-mediated reality, wherein first-person perspective-mediated reality creates a correspondence between a location and orientation of a user in real space to a virtual location and virtual orientation of a virtual user; determining a constrained virtual space , comprising a portion of a virtual space , by determining a boundary of the constrained virtual space , wherein the constrained virtual space corresponds to the available real space; determining available mediated reality content which comprises multiple representations of the virtual space when observed from multiple virtual locations within the constrained virtual space; automatically determining a sub-set of the available mediated reality content which comprises multiple representations of the virtual space when observed from multiple virtual locations within the constrained virtual space, without requiring the user to change location in the real space; and causing rendering of at least some of the determined sub-set of the available virtual reality content which comprises multiple representations of the virtual space when observed from multiple virtual locations within the constrained virtual space to the user.