mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a film comprising microfibrillated cellulose, wherein the method comprises the steps of: - providing a first suspension comprising microfibrillated cellulose in an amount of at least 50 weight% based on the total weight of solids of the suspension, having a dry content of from 0.2 to 2.0 %, wherein the first suspension has a first Schopper-Riegler (SR) value; - forming a first web of said suspension; - at least partly dewatering said first web; - applying a second suspension comprising microfibrillated cellulose, onto a surface of said formed and at least partially dewatered first web, wherein the second suspension has a second Schopper-Riegler value which is higher than said first Schopper-Riegler value, thereby forming a film, and - dewatering the formed film, wherein said second SR value is from 5% to 30 % higher than said first SR value. - providing a first suspension comprising microfibrillated cellulose in an amount of at least 50 weight% based on the total weight of solids of the suspension, having a dry content of from 0.2 to 2.0 %, wherein the first suspension has a first Schopper-Riegler (SR) value; - forming a first web of said suspension; - at least partly dewatering said first web; - applying a second suspension comprising microfibrillated cellulose, onto a surface of said formed and at least partially dewatered first web, wherein the second suspension has a second Schopper-Riegler value which is higher than said first Schopper-Riegler value, thereby forming a film, and - dewatering the formed film, wherein said second SR value is from 5% to 30 % higher than said first SR value.
Device for the production by machine of a three dimensional packaging product from a section of a single or multiple layer paper web reshaped in a predetermined manner, comprising a pre-shaping station which can reshape the paper web into a three-dimensional packaging product with at least one hollow crumple space extending in the direction of the web, and a separating station which adjoins the pre-shaping station in the direction of travel of the paper web and can cut a paper web section to the required length of the packaging product from the pre-shaped paper web, wherein the pre-shaping is formed in that the paper web can be drawn from the inside of a paper web roll whereby a spiral paper tube is formed or in that the paper web can be pre-shaped in that a two dimensional paper web section can be drawn from a paper web source in form of a paper web roll or a zig-zag folded paper web stack and at least one longitudinal edge strip can be folded or rolled up characterised in that subsequently the middle section can be deformed plastically by a pair of embossing wheels in a manner that in addition a sequence of embossing valleys and embossing mountains can be produced in longitudinal direction of the paper web section and that the separating station comprises a rotary cutter , the blade of which is positioned transverse to the direction of travel (F) in which the paper web section leaves the pre-shaping station, wherein a rotational path of the blade is arranged in such a way that during rotation the blade crosses a travel path of the paper web section.
Timepiece comprising a watch movement arranged to drive first and second display members in rotation with reference to a frame of said watch movement , each of said first and second display members being driven through engagement with a corresponding drive wheel , for displaying respective first and second pieces of information, each of said first and second display members carrying at least one indication for displaying the corresponding piece of information and having a generally annular shape, characterized in that said first display member delimits a first internal surface in which is arranged a first dial integral with said frame and comprising a substantially circular opening defining a housing for said second display member , the latter defining a second internal surface in which is arranged a second dial integral with said frame and distinct from said first dial , said first and second display members having axes of rotation arranged at a distance from one another.
A method for determining the oxygen status of a squamous cell carcinoma or a sarcoma of an individual comprising i) in a sample comprising cells of said squamous cell carcinoma or a sarcoma ii) determining the transcriptional expression level of the ADM gene (SEQ ID NO:1) or a variant at least 95% identical thereto, iii) correlating said transcriptional expression level of the ADM gene to the expression level of at least one reference gene selected from ACTR3 (SEQ ID NO: 53), NDFIP1 (SEQ ID NO: 54), RPL37A (SEQ ID NO: 55) and/or variants at least 95% identical thereto, and iv) evaluating the oxygen status of said squamous cell carcinoma or a sarcoma by comparing the correlated transcriptional expression level of iii) with a predetermined correlated transcriptional expression level of ADM. i) in a sample comprising cells of said squamous cell carcinoma or a sarcoma ii) determining the transcriptional expression level of the ADM gene (SEQ ID NO:1) or a variant at least 95% identical thereto, iii) correlating said transcriptional expression level of the ADM gene to the expression level of at least one reference gene selected from ACTR3 (SEQ ID NO: 53), NDFIP1 (SEQ ID NO: 54), RPL37A (SEQ ID NO: 55) and/or variants at least 95% identical thereto, and iv) evaluating the oxygen status of said squamous cell carcinoma or a sarcoma by comparing the correlated transcriptional expression level of iii) with a predetermined correlated transcriptional expression level of ADM.
A channel sounding method in a wireless local area network, WLAN, system, the method comprising: receiving, by a receiver, a null data packet announcement, NDPA, frame from an access point, AP, to initiate a channel sounding procedure, wherein the NDPA frame includes an association identifier, AID, of the receiver and a feedback type field including information related to one of Single-User MIMO, SU-MIMO, channel sounding and Multi-User MIMO, MU-MIMO, channel sounding to be used for the receiver, wherein the NDPA frame further includes an index field including information indicating a number of columns of a beamforming feedback matrix; receiving, by the receiver, a null data packet, NDP, frame from the AP; generating, by the receiver, a feedback frame including a channel feedback report, wherein the channel feedback report is split into a plurality of feedback segments; transmitting, by the receiver, the feedback frame to the AP; receiving, by the receiver, a retransmission request from the AP, the retransmission request including a segment retransmission bitmap field including information indicating at least one feedback segment of the plurality of feedback segments for retransmission; and retransmitting, by the receiver, the at least one feedback segment to the AP. receiving, by a receiver, a null data packet announcement, NDPA, frame from an access point, AP, to initiate a channel sounding procedure, wherein the NDPA frame includes an association identifier, AID, of the receiver and a feedback type field including information related to one of Single-User MIMO, SU-MIMO, channel sounding and Multi-User MIMO, MU-MIMO, channel sounding to be used for the receiver, wherein the NDPA frame further includes an index field including information indicating a number of columns of a beamforming feedback matrix; receiving, by the receiver, a null data packet, NDP, frame from the AP; generating, by the receiver, a feedback frame including a channel feedback report, wherein the channel feedback report is split into a plurality of feedback segments; transmitting, by the receiver, the feedback frame to the AP; receiving, by the receiver, a retransmission request from the AP, the retransmission request including a segment retransmission bitmap field including information indicating at least one feedback segment of the plurality of feedback segments for retransmission; and retransmitting, by the receiver, the at least one feedback segment to the AP.
Cold film transfer method, in which a cold adhesive , in particular an adhesive crosslinking under UV radiation, is applied onto a substrate and is connected to a transfer ply of a transfer film , characterised in that a transfer film is brought together with the substrate , said transfer film comprising a carrier film and a transfer ply that can be detached from the carrier film , wherein, starting from the carrier film , the transfer ply comprises a transparent detachment layer , an optional transparent protective lacquer layer , at least one decorative layer and at least one priming layer made of a thermoplastic adhesive, which can be activated in a temperature range of >90°C, wherein, when bringing the transfer film together with the substrate , the at least one priming layer of the transfer film faces towards the cold adhesive , and wherein the cold adhesive is further cured, in particular the adhesive crosslinking under UV radiation is irradiated and crosslinked, wherein an adhesive connection to the transfer ply of the transfer film is formed.
A filter having a testing port, comprising: a pleated v-shaped filter media having a front face and a rear face , the pleats extending to a predefined height; a test port member having a front face positioned adjacent the front face of the filter media , a rear face positioned adjacent the rear face of the filter media , and a through port extending between the front face and the opposing rear face of the test port member , and an inwardly facing side extending between the front face and the opposing rear face ; a peripheral frame receiving the filter media and the test port member and maintains them in adjacent relationships; wherein the test port member is retained by the peripheral frame and is positioned between the peripheral frame and a truncated portion of the outer periphery of the pleated v-shaped filter media , the truncated portion being created by removing a portion of the filter media , wherein the inwardly facing side of the test port member engages an outer periphery of the filter media , and wherein the test port member defines one or more cavities with the peripheral frame , the one or more cavities being intersected by the through port ; both the pleated v-shaped filter media having the truncated portion and the test port member adjacent the truncated portion is retained within the peripheral frame and forming a rectangular filter . a pleated v-shaped filter media having a front face and a rear face , the pleats extending to a predefined height; a test port member having a front face positioned adjacent the front face of the filter media , a rear face positioned adjacent the rear face of the filter media , and a through port extending between the front face and the opposing rear face of the test port member , and an inwardly facing side extending between the front face and the opposing rear face ; a peripheral frame receiving the filter media and the test port member and maintains them in adjacent relationships; wherein the test port member is retained by the peripheral frame and is positioned between the peripheral frame and a truncated portion of the outer periphery of the pleated v-shaped filter media , the truncated portion being created by removing a portion of the filter media , wherein the inwardly facing side of the test port member engages an outer periphery of the filter media , and wherein the test port member defines one or more cavities with the peripheral frame , the one or more cavities being intersected by the through port ; both the pleated v-shaped filter media having the truncated portion and the test port member adjacent the truncated portion is retained within the peripheral frame and forming a rectangular filter .
Reinforcing material, in particular for rubber assemblies, in particular in the form of a tire cord construction, which has a cellulosic multifiber with a strength in conditioned state according to ASTM D 855M of 35 cN/tex or above and having a structure having a structural inhomogeneity generated by a deviation of the distribution of its individual fiber thickness from a sharp centering by an individual fiber thickness in the form of a variation coefficient of the distribution of greater than 1/27 and less than 3/7, and in which the structure of the multifiber has a material homogeneity resulting from spinning its individual fibers out of a spinning mass of the same spinning mass formula, wherein the distribution has at least two relative maxima and the average individual fiber thickness, measured in dtex, of the distribution is greater than 1.5.
Method for controlling a robot for automatic positioning of a geometrically and/or functionally rotationally symmetrical tool in a 5D target pose , wherein the robot has a movable robot arm , which has a robot flange on its end side, on which the tool is held, with the method steps - Specifying 3D space coordinates of a reference point of the tool , of an axis of the tool and of an orientation of this axis as part of the 5D target pose for the tool , - Determining a 6D pose of the robot flange corresponding to the 5D target pose of the tool , - Expanding a predetermined kinematics of the robot by augmenting it with a virtual joint arranged in the tool , which makes possible a virtual restriction-free rotation about the predetermined axis of the tool , - Providing the determined 6D pose of the robot flange and the expanded kinematics to an automatic path planning module , and - Determining by means of the automatic path planning module a path in accordance with which the 6D pose of the robot flange determined can be moved to from a current initial pose of the robot in each case, wherein conflicts occurring during this process with a maximum physical scope of movement of the robot are resolved automatically by means of the path planning module by a rotation of the virtual joint , characterised in that the predetermined axis is an axis of symmetry of the tool , wherein in addition to the virtual joint , a virtual connecting element is predetermined, which connects the virtual joint to the reference point and/or to a tip of the tool facing away from the robot flange . - Specifying 3D space coordinates of a reference point of the tool , of an axis of the tool and of an orientation of this axis as part of the 5D target pose for the tool , - Determining a 6D pose of the robot flange corresponding to the 5D target pose of the tool , - Expanding a predetermined kinematics of the robot by augmenting it with a virtual joint arranged in the tool , which makes possible a virtual restriction-free rotation about the predetermined axis of the tool , - Providing the determined 6D pose of the robot flange and the expanded kinematics to an automatic path planning module , and - Determining by means of the automatic path planning module a path in accordance with which the 6D pose of the robot flange determined can be moved to from a current initial pose of the robot in each case, wherein conflicts occurring during this process with a maximum physical scope of movement of the robot are resolved automatically by means of the path planning module by a rotation of the virtual joint , characterised in that the predetermined axis is an axis of symmetry of the tool , wherein in addition to the virtual joint , a virtual connecting element is predetermined, which connects the virtual joint to the reference point and/or to a tip of the tool facing away from the robot flange .
A process for the production of a mineral foam comprising the following steps: (i) separately preparing a slurry of cement and an aqueous foam, wherein the cement slurry comprises water (W) and Portland cement (C) as well as CSH crystallization seeds; (ii) contacting the slurry of cement with the aqueous foam to obtain a slurry of foamed cement; (iii) casting the slurry of foamed cement and leave it to set, wherein the mineral foam is substantially free of particles with a mean diameter D50 of < 2 μm, wherein the CSH crystallization seeds comprise calcium silicate hydrate particles and the CSH crystallisation seeds are present in an amount of 0.5 - 7% in dry calcium silicate hydrate by weight of Portland cement, preferably 0.5 - 5% in dry calcium silicate hydrate by weight of Portland cement, more preferably 0.7 - 3% in dry calcium silicate hydrate by weight of Portland cement. (i) separately preparing a slurry of cement and an aqueous foam, wherein the cement slurry comprises water (W) and Portland cement (C) as well as CSH crystallization seeds; (ii) contacting the slurry of cement with the aqueous foam to obtain a slurry of foamed cement; (iii) casting the slurry of foamed cement and leave it to set, wherein the mineral foam is substantially free of particles with a mean diameter D50 of < 2 μm, wherein the CSH crystallization seeds comprise calcium silicate hydrate particles and the CSH crystallisation seeds are present in an amount of 0.5 - 7% in dry calcium silicate hydrate by weight of Portland cement, preferably 0.5 - 5% in dry calcium silicate hydrate by weight of Portland cement, more preferably 0.7 - 3% in dry calcium silicate hydrate by weight of Portland cement.
Method for locating a three-dimensional target with respect to a vehicle, implemented by a system comprising a sensor suitable for capturing images of the target, and a computer, and comprising: - capturing an image of the target, and - from a three-dimensional mesh of the target, and from an estimation of the pose of the target, determining a set of projecting edges of the mesh of the target in said pose, and the method being characterized in that the step of determining the projecting edges of the mesh of the target comprises: a) positioning the mesh of the target according to the pose, b) projecting in two dimensions the mesh so positioned, c) scanning the projection of the mesh in a plurality of scanning rows and, for each scanning row: - defining a set of segments, each segment corresponding to the intersection of a face of the mesh with the scanning row and being defined by its ends, - analyzing the relative depths of the ends of the segments, the depth being the position along a third dimension orthogonal to the two dimensions of the projection, in order to select a set of end points of segments corresponding to projecting edges of the mesh. - capturing an image of the target, and - from a three-dimensional mesh of the target, and from an estimation of the pose of the target, determining a set of projecting edges of the mesh of the target in said pose, and a) positioning the mesh of the target according to the pose, b) projecting in two dimensions the mesh so positioned, c) scanning the projection of the mesh in a plurality of scanning rows and, for each scanning row: - defining a set of segments, each segment corresponding to the intersection of a face of the mesh with the scanning row and being defined by its ends, - analyzing the relative depths of the ends of the segments, the depth being the position along a third dimension orthogonal to the two dimensions of the projection, in order to select a set of end points of segments corresponding to projecting edges of the mesh. - defining a set of segments, each segment corresponding to the intersection of a face of the mesh with the scanning row and being defined by its ends, - analyzing the relative depths of the ends of the segments, the depth being the position along a third dimension orthogonal to the two dimensions of the projection, in order to select a set of end points of segments corresponding to projecting edges of the mesh.
A color composition comprising: about 5 to 30 weight percent of 2-pyrrolidone, about 25 to 55 weight percent of sulfolane, about 15 to 55 weight percent of ε-caprolactone, and about 1 to 25 weight percent of a colorant. about 5 to 30 weight percent of 2-pyrrolidone, about 25 to 55 weight percent of sulfolane, about 15 to 55 weight percent of ε-caprolactone, and about 1 to 25 weight percent of a colorant.
A computer implemented method, comprising: determining a sequence of templates , characterised in that each of the templates defines a respective spatiotemporal layout of regions in a display area , wherein each of the regions is associated with a respective set of one or more image selection criteria and respective set of one or more temporal behavior attribute values for the image elements assigned to the region; for each of the templates , ascertaining a respective image layer for each of the regions of the template, wherein the ascertaining comprises for each of the layers assigning a respective image element to the respective region in accordance with the respective set of image selection criteria; for each frame in a sequence of frames composited from one or more layers, producing a respective set of rendering parameter values that specifies a composition of the frame in the display area based on a respective set of ones of the image layers determined for one or more of the templates and the respective sets of temporal behavior attribute values for the image elements assigned to the region; and outputting the sets of rendering parameter values to a composite image renderer for generating a dynamic image collage consisting of a sequence of groups of frames. determining a sequence of templates , characterised in that each of the templates defines a respective spatiotemporal layout of regions in a display area , wherein each of the regions is associated with a respective set of one or more image selection criteria and respective set of one or more temporal behavior attribute values for the image elements assigned to the region; for each of the templates , ascertaining a respective image layer for each of the regions of the template, wherein the ascertaining comprises for each of the layers assigning a respective image element to the respective region in accordance with the respective set of image selection criteria; for each frame in a sequence of frames composited from one or more layers, producing a respective set of rendering parameter values that specifies a composition of the frame in the display area based on a respective set of ones of the image layers determined for one or more of the templates and the respective sets of temporal behavior attribute values for the image elements assigned to the region; and outputting the sets of rendering parameter values to a composite image renderer for generating a dynamic image collage consisting of a sequence of groups of frames.