mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument of cross-branched design having a female branch and a male branch, each having a terminal portion (6, 8) along their longitudinal extent, and the terminal portion of the female branch being pierced by a passage opening having a distal and a proximal longitudinal end surface (12a, b), each having two outer edges (14a-d) and being adapted to receive the terminal portion of the male branch, so that the two terminal portions (6, 8) form a box-lock mechanism in an assembly position of the instrument, wherein the passage opening has a length at which the outer edges (14a-d) of the longitudinal end surfaces (12a, b) are exposed and are not covered by the male branch in all relative positions of the two branches (2, 4), in particular in a fully closed position and/or in a fully open position of the instrument, characterized in that the passage opening further forms two opposite inner contact surfaces connecting the two longitudinal end surfaces (12a, b), the terminal portion of the male branch forms two outer contact surfaces facing away from each other and outer transverse surfaces (34, 36a, b) connecting the two outer contact surfaces to each other, so that in the box-lock mechanism in each case an inner contact surface and an outer contact surface are held rotatably against each other, and in all relative positions of the branches (2, 4) in each case between the proximal and the distal longitudinal end surface (12a, b) and an outer transverse surface (34, 36a, b), a channel through which flow is possible is formed. the passage opening has a length at which the outer edges (14a-d) of the longitudinal end surfaces (12a, b) are exposed and are not covered by the male branch in all relative positions of the two branches (2, 4), in particular in a fully closed position and/or in a fully open position of the instrument, characterized in that the passage opening further forms two opposite inner contact surfaces connecting the two longitudinal end surfaces (12a, b), the terminal portion of the male branch forms two outer contact surfaces facing away from each other and outer transverse surfaces (34, 36a, b) connecting the two outer contact surfaces to each other, so that in the box-lock mechanism in each case an inner contact surface and an outer contact surface are held rotatably against each other, and in all relative positions of the branches (2, 4) in each case between the proximal and the distal longitudinal end surface (12a, b) and an outer transverse surface (34, 36a, b), a channel through which flow is possible is formed.
Reinforcement arrangement comprising an existing structure and a reinforcing device (5b; 5c; 5d) attached to same, comprising a. a reinforcement layer that is attached to an outer surface of the existing structure, b. at least one anchoring member (8; 8c) with which the reinforcement layer is anchored to the existing structure, c. at least one supporting member (22; 22c; 22di) which supports the reinforcement layer on the existing structure and which has a main through-bore through which the anchoring member (8, 8c) is passed, wherein an outer surface of the existing structure has a first surface portion and a second surface portion which are oriented transversely to one another, wherein a transition region is arranged between the first surface portion and the second surface portion, characterized in that d. the reinforcement layer comprises at least one binding agent layer with a textile reinforcement and a flexible reinforcement layer embedded in the at least one binding agent layer, e. a levelling concrete is introduced into the transition region and the at least one supporting member (22; 22c; 22d) is inserted into the levelling concrete, a. a reinforcement layer that is attached to an outer surface of the existing structure, b. at least one anchoring member (8; 8c) with which the reinforcement layer is anchored to the existing structure, c. at least one supporting member (22; 22c; 22di) which supports the reinforcement layer on the existing structure and which has a main through-bore through which the anchoring member (8, 8c) is passed, wherein an outer surface of the existing structure has a first surface portion and a second surface portion which are oriented transversely to one another, wherein a transition region is arranged between the first surface portion and the second surface portion, d. the reinforcement layer comprises at least one binding agent layer with a textile reinforcement and a flexible reinforcement layer embedded in the at least one binding agent layer, e. a levelling concrete is introduced into the transition region and the at least one supporting member (22; 22c; 22d) is inserted into the levelling concrete,
An ink composition comprising: first pigment particles selected from self-dispersing carbon black, carbon black of which at least a part is covered with a water-insoluble resin and a mixture thereof, the amount of the first pigment particles being from 1% by mass to 5% by mass relative to the total mass of the ink composition; second pigment particles formed of a cyan pigment of which at least a part is covered with a water-insoluble resin, the amount of the second pigment particles being from 1% by mass to 50% by mass relative to the mass of the first pigment particles; water-insoluble resin particles; water; and a wax. first pigment particles selected from self-dispersing carbon black, carbon black of which at least a part is covered with a water-insoluble resin and a mixture thereof, the amount of the first pigment particles being from 1% by mass to 5% by mass relative to the total mass of the ink composition; second pigment particles formed of a cyan pigment of which at least a part is covered with a water-insoluble resin, the amount of the second pigment particles being from 1% by mass to 50% by mass relative to the mass of the first pigment particles; water-insoluble resin particles; water; and a wax.
A furniture module for forming part of a piece of furniture, comprising a first panel, a second panel, and at least one hinge member having at least one connection element, whereby the hinge member is arranged to be attached to at least one of the panels (102, 104) by means of said connection element, wherein the hinge member is configured to allow the first and second panels (102, 104) to be folded relative each other by 250-270°, such as approximately 270°, between a folded, and flat, shape, and an erected corner shape, wherein the hinge member is arranged on the exterior side of the corner shape, and wherein chamfered folding sides (112, 114) of the panels (102, 104) come into contact with each other, thereby forming a perpendicular configuration of the panels (102, 104).
A heat treatment monitoring system (800, 900, 1000), comprising - a conveyor belt for moving the pieces of food (980, 1080) - a laser light emitting and distribution unit (852, 955, 1055) for generating a first laser beam and a second laser beam and for directing the first laser beam towards a first position on the conveyor belt and the second laser beam towards a second position on the conveyor belt within or next to a heat treatment unit; - a sensor system (850, 960, 1060) for detecting the first laser beam and the second laser beam scattered from the piece of food (980, 1080); - a measurement unit for determining a three dimensional profile of the piece of food (980, 1080) according to the detection of the sensor system (850, 960, 1060) by means of laser triangulation, characterized in that - the heat treatment monitoring system (800,900,1000) comprises the heat treatment unit for heating pieces of food (980, 1080); and - the conveyor belt is provided for moving the pieces of food (980,1080))through the heat treatment unit; and - the measurement unit is adapted to observe a difference of respective surface structures of different pieces of food caused by the heat treatment as the conveyor belt moves the pieces of food through the heat treatment unit from a focus point of the first laser beam towards the second position, which is the focus point of the second laser beam to determine information about the difference in surface structure at different stages of the heat treatment process to automatically control the heat treatment process. - a sensor system (850, 960, 1060) for detecting the first laser beam and the second laser beam scattered from the piece of food (980, 1080); - a measurement unit for determining a three dimensional profile of the piece of food (980, 1080) according to the detection of the sensor system (850, 960, 1060) by means of laser triangulation, characterized in that - the heat treatment monitoring system (800,900,1000) comprises the heat treatment unit for heating pieces of food (980, 1080); and - the conveyor belt is provided for moving the pieces of food (980,1080))through the heat treatment unit; and - the measurement unit is adapted to observe a difference of respective surface structures of different pieces of food caused by the heat treatment as the conveyor belt moves the pieces of food through the heat treatment unit from a focus point of the first laser beam towards the second position, which is the focus point of the second laser beam to determine information about the difference in surface structure at different stages of the heat treatment process to automatically control the heat treatment process.
Compound of general formula I or a pharmaceutically acceptable salt, hydrate, solvate, N-oxide, stereoisomer, diastereoisomer, enantiomer, atropoisomer or polymorph thereof: wherein R 1, R 2, X, Y, Z, W, are independently selected from each other; R 1 is selected from H or C 1 -C 6 alkyl; R 2 is selected from H or C 1 -C 6 alkyl; X is selected from N, O, S or CR 3, and R 3 is selected from H, halogen, C 1 -C 6 alkoxy or C 1 -C 6 haloalkyl; Y is selected from N or CR 4, and R 4 is selected from H, C 1 -C 6 haloalkoxy, OH, C 1 -C 6 alkoxy, C 1 -C 6 haloalkyl, halogen or C 1 -C 6 alkyl; Z is selected from N or CR 5, and R 5 is selected from H, halogen, C 1 -C 6 alkoxy, C 1 -C 6 haloalkyl, C 1 -C 6 haloalkoxy, OH, NO 2 or C 1 -C 6 alkyl; W is selected from N, or CR 6, and R 6 is selected from H, C 1 -C 6 alkoxy, C 1 -C 6 haloalkyl, halogen, or C 1 -C 6 haloalkoxy; m and n are independently selected from 0 or 1; halogen is For CI; with the proviso that the group connected to the quinoline moiety on C 6 is a substituted aryl, a substituted or unsubstituted heteroaryl or fused heteroaryl ring selected from pyridin-2-yl, pyridin-3-yl, pyridin-4-yl, pyrimidin-5-yl, furan-2-yl, benzothiophenyl, indolyl or phenyl, and the piperidine ring that is connected to the quinoline moiety on C 2, has its C 3 or C 4 substituted with carboxylate group. R 1, R 2, X, Y, Z, W, are independently selected from each other; R 1 is selected from H or C 1 -C 6 alkyl; R 2 is selected from H or C 1 -C 6 alkyl; X is selected from N, O, S or CR 3, and R 3 is selected from H, halogen, C 1 -C 6 alkoxy or C 1 -C 6 haloalkyl; Y is selected from N or CR 4, and R 4 is selected from H, C 1 -C 6 haloalkoxy, OH, C 1 -C 6 alkoxy, C 1 -C 6 haloalkyl, halogen or C 1 -C 6 alkyl; Z is selected from N or CR 5, and R 5 is selected from H, halogen, C 1 -C 6 alkoxy, C 1 -C 6 haloalkyl, C 1 -C 6 haloalkoxy, OH, NO 2 or C 1 -C 6 alkyl; W is selected from N, or CR 6, and R 6 is selected from H, C 1 -C 6 alkoxy, C 1 -C 6 haloalkyl, halogen, or C 1 -C 6 haloalkoxy; m and n are independently selected from 0 or 1; halogen is For CI; with the proviso that the group connected to the quinoline moiety on C 6 is a substituted aryl, a substituted or unsubstituted heteroaryl or fused heteroaryl ring selected from pyridin-2-yl, pyridin-3-yl, pyridin-4-yl, pyrimidin-5-yl, furan-2-yl, benzothiophenyl, indolyl or phenyl, and the piperidine ring that is connected to the quinoline moiety on C 2, has its C 3 or C 4 substituted with carboxylate group.
A sensor for detecting objects in a detection area with sensor components which are designed for object detection or code detection, and with electronic components which are designed for evaluating sensor signals from the sensor components, wherein the sensor components and electronic components are integrated in at least one housing, characterised in that a light-conducting display element running around the circumference of the housing is arranged between boundary surfaces (15, 16) of two housing elements of the housing, the housing elements being connected to one another with intermediate mounting of the display element, wherein an alignment display can be carried out with the display element, and that the display element is assigned light sources which are arranged in different positions in the housing, rotate in the circumferential direction of the housing and are designed to emit visible light beams, and which are activated depending on sensor signals from the sensor components, and that individual light sources can be selectively activated, whereby different areas of the display element are illuminated, whereby the illuminated areas provide a direction-dependent indication of the orientation of the sensor relative to an object to be detected.
A system comprising: a computing device configured to: receive health-related information for an individual from one of the individual, their agent, or a service provider, the health-related information including one of genetics or metabolomic profile data of the individual; receive taste preference data from the individual; based on the health-related information, determine a formulation for an ingredient for the individual; and based on the taste preference data, determine a filler medium that is consistent with the taste preference data, wherein the filler material is a thixotropic semi-solid hydrocolloid that allows dissolution or suspension of compounds in a form that is stable until agitated or extruded at which point the semi-solid becomes fluid and can be dispensed; a formulation module configured to prepare the formulation; a medium formulation module configured to prepare the filler medium; and a dispenser configured to dispense a predetermined amount of the formulation within the filler medium to form a dosage, wherein the thixotropic semi-solid hydrocolloid is solubilized to embed the formulation and then reformed as a semi-solid. a computing device configured to: receive health-related information for an individual from one of the individual, their agent, or a service provider, the health-related information including one of genetics or metabolomic profile data of the individual; receive taste preference data from the individual; based on the health-related information, determine a formulation for an ingredient for the individual; and based on the taste preference data, determine a filler medium that is consistent with the taste preference data, wherein the filler material is a thixotropic semi-solid hydrocolloid that allows dissolution or suspension of compounds in a form that is stable until agitated or extruded at which point the semi-solid becomes fluid and can be dispensed; receive health-related information for an individual from one of the individual, their agent, or a service provider, the health-related information including one of genetics or metabolomic profile data of the individual; receive taste preference data from the individual; based on the health-related information, determine a formulation for an ingredient for the individual; and based on the taste preference data, determine a filler medium that is consistent with the taste preference data, wherein the filler material is a thixotropic semi-solid hydrocolloid that allows dissolution or suspension of compounds in a form that is stable until agitated or extruded at which point the semi-solid becomes fluid and can be dispensed; a formulation module configured to prepare the formulation; a medium formulation module configured to prepare the filler medium; and a dispenser configured to dispense a predetermined amount of the formulation within the filler medium to form a dosage, wherein the thixotropic semi-solid hydrocolloid is solubilized to embed the formulation and then reformed as a semi-solid.
A pillow (200, 800) comprising: a foam body having a top surface, an opposing bottom surface, a rear edge and an opposing front edge and lateral sides (118, 218), wherein the foam body is defined by a first region that includes the front edge, a second region adjacent the first region and a third region adjacent the second region and defining the rear edge, wherein the first region has a convex shape, the second region has a concave shape and the third region has a convex shape, the pillow having a maximum thickness in the first region and a minimum thickness in the second region, the first region having a first section that extends to the front edge and has a positive slope and an adjacent second section that has a negative slope; characterized by: three ribs extending longitudinally between the lateral sides and being located exclusively within the first section of the first region, the second section of the first region being free of ribs; the three ribs comprising a front rib, a middle rib and a rear rib, with a first distance being defined between the front rib and middle rib and a second distance being defined between the middle rib and the rear rib, as measured along a width of the pillow and optionally wherein the three ribs have convex shapes with a radius of curvature that defines each rib being at least substantially equal; and wherein the front rib defines a forwardmost point of the foam body. a foam body having a top surface, an opposing bottom surface, a rear edge and an opposing front edge and lateral sides (118, 218), wherein the foam body is defined by a first region that includes the front edge, a second region adjacent the first region and a third region adjacent the second region and defining the rear edge, wherein the first region has a convex shape, the second region has a concave shape and the third region has a convex shape, the pillow having a maximum thickness in the first region and a minimum thickness in the second region, the first region having a first section that extends to the front edge and has a positive slope and an adjacent second section that has a negative slope; characterized by: three ribs extending longitudinally between the lateral sides and being located exclusively within the first section of the first region, the second section of the first region being free of ribs; the three ribs comprising a front rib, a middle rib and a rear rib, with a first distance being defined between the front rib and middle rib and a second distance being defined between the middle rib and the rear rib, as measured along a width of the pillow and optionally wherein the three ribs have convex shapes with a radius of curvature that defines each rib being at least substantially equal; and wherein the front rib defines a forwardmost point of the foam body.
A method implemented at a server, comprising: determining at least one cluster, the cluster being defined with coverage smaller than a cell and being used for delivering of a message; determining a mapping between one of the at least one cluster and at least one bearer; indicating the determined mapping to a radio access network; and multicasting a message using a first bearer via the RAN, the first bearer being selected from the at least one bearer based on the mapping, wherein the at least one cluster is determined based on at least one of the following: a geographical area, a cell identification and a signal quality, a device type, and a service type. determining at least one cluster, the cluster being defined with coverage smaller than a cell and being used for delivering of a message; determining a mapping between one of the at least one cluster and at least one bearer; indicating the determined mapping to a radio access network; and multicasting a message using a first bearer via the RAN, the first bearer being selected from the at least one bearer based on the mapping, wherein the at least one cluster is determined based on at least one of the following: a geographical area, a cell identification and a signal quality, a device type, and a service type. a geographical area, a cell identification and a signal quality, a device type, and a service type.
A porous ceramic structure (11; 21) intended to form the reinforcement of a ceramic matrix composite component, the structure having a connected porosity delimited by an internal surface (14; 25) which comprises a plurality of first points (A1, A2), each first point being associated with a second point (B1, B2) aligned with this first point along a normal (N1, N2) to the internal surface taken at the first point, the structure being divisible into a plurality of unit volumes (10; 20) of a size less than or equal to 5 mm 3 in each of which: - a characteristic pore length, corresponding to the maximum of the distance (L1, L2) separating each first point (A1, A2) from its associated second point (B1, B2), is less than or equal to 0.5 mm; and - a porosity ratio is greater than or equal to 50%; and comprising a plurality of interconnected structural elements which define the connected porosity, wherein in each unit volume a surface bridging ratio corresponding to the ratio between the sum of the surfaces connecting two structural elements to each other and the sum of the free surfaces of the structural elements is less than or equal to 15%, wherein the structural elements are beams and wherein the beams are arranged to form a 4D structure where the beams are oriented in four directions given by the diagonals of a cube. - a characteristic pore length, corresponding to the maximum of the distance (L1, L2) separating each first point (A1, A2) from its associated second point (B1, B2), is less than or equal to 0.5 mm; and - a porosity ratio is greater than or equal to 50%; and
A computer-implemented method of performing structural analysis relating to a component (18, 102, 112) having CAD-based geometry, refined CAD-based geometry and CAD-based finite element analysis data associated therewith, the method comprising: receiving scan-based point cloud geometry of the component obtained by scanning the component; aligning the scan-based point cloud geometry with the CAD-based geometry of the component; generating scan-based geometry of the component by refining the scan-based point cloud geometry; comparing the scan-based geometry with the refined CAD-based geometry of the component to quantify geometric differences therebetween; generating scan-based FEA geometry of the component by meshing the scan-based geometry; performing finite element analysis on the scan-based FEA geometry to obtain scan-based FEA data; and comparing the scan-based FEA data with the CAD-based FEA data of the component to identify geometric difference therebetween to validate the scan-based FEA data. receiving scan-based point cloud geometry of the component obtained by scanning the component; aligning the scan-based point cloud geometry with the CAD-based geometry of the component; generating scan-based geometry of the component by refining the scan-based point cloud geometry; comparing the scan-based geometry with the refined CAD-based geometry of the component to quantify geometric differences therebetween; generating scan-based FEA geometry of the component by meshing the scan-based geometry; performing finite element analysis on the scan-based FEA geometry to obtain scan-based FEA data; and comparing the scan-based FEA data with the CAD-based FEA data of the component to identify geometric difference therebetween to validate the scan-based FEA data.