mhurhangee/ep-ind-claims huggingface dataset:
A method of characterizing heterogeneity in a cell sample comprising one or more analytes labeled with a detectable marker, the method comprising analyzing an image of the cell sample on a computer apparatus comprising a computer processor programmed to apply a cluster analysis to a dataset obtained from the image of the cell sample to create a cluster map comprising a plurality of clusters of expression patterns, wherein: (a) the dataset comprises an image stack for at least a portion of the image of the cell sample, wherein the image stack comprises a x-axis, a y-axis, and a z-axis, wherein the x-axis and the y-axis represent spatial coordinates within the portion of the image, and the z-axis comprises a number of n layers (L1, L2, L3..., Ln), wherein each layer of the z axis comprises intensity data for a single detectable marker at a plurality of x,y coordinates; and (b) the cluster analysis comprises applying an unsupervised, non-parametric, density-based clustering algorithm to the image stack, wherein the clustering algorithm clusters points (P i, P j) defined by the dataset in an at least n+2 dimensional space, where each point is given by x,y coordinates and n intensity data values from the n layers at the respective x,y coordinate in the image stack, thereby generating the plurality of clusters, (c) outputting of output data (114, 116) being representative of the result of the cluster analysis, the data being indicative of the heterogeneity in the cell sample. wherein the image is a multi-channel image and wherein the n layers are obtained by unmixing the multi-channel image. (a) the dataset comprises an image stack for at least a portion of the image of the cell sample, wherein the image stack comprises a x-axis, a y-axis, and a z-axis, wherein the x-axis and the y-axis represent spatial coordinates within the portion of the image, and the z-axis comprises a number of n layers (L1, L2, L3..., Ln), wherein each layer of the z axis comprises intensity data for a single detectable marker at a plurality of x,y coordinates; and (b) the cluster analysis comprises applying an unsupervised, non-parametric, density-based clustering algorithm to the image stack, wherein the clustering algorithm clusters points (P i, P j) defined by the dataset in an at least n+2 dimensional space, where each point is given by x,y coordinates and n intensity data values from the n layers at the respective x,y coordinate in the image stack, thereby generating the plurality of clusters, (c) outputting of output data (114, 116) being representative of the result of the cluster analysis, the data being indicative of the heterogeneity in the cell sample.
Capsule comprising a capsule body, preferably configured so as to be rotationally symmetrical, having a side wall and a base that in particular is configured so as to be integral to said side wall, and having a lid that covers the capsule body in order for at least one chamber to be formed, wherein for passing a liquid through the chamber the lid forms an entry side and the base forms an exit side having a preferably central outlet opening, wherein a separate internal cup is held above the base in the capsule, said internal cup covering the outlet opening and being capable of being perfused by the liquid and containing a substance for the preparation of a liquid foodstuff, characterized in that the base has a receptacle or a receptacle shoulder to or in which the internal cup is latched or inserted, wherein the base and the internal cup have mutually communicating seal faces (13, 14), and wherein the two seal faces (13, 14) are capable of being mutually compressed when a hydraulic pressure is prevalent in the internal cup.
A process for the production of a composition comprising 1,3-dioleoyl-2-palmitoyl glyceride, wherein the process comprises subjecting a palm oil stearin, with an iodine value between 8 and 12 to enzymic transesterification, with oleic acid or a non-glyceride ester thereof.
Canal sealing system for the sealing of canals and other watercourses in a water-bearing state, with: a canal working platform comprising - a support structure and - a working surface which has a working plane which is held by the support structure; wherein the working surface is able to be arranged above the water level and is constructed to span at least a portion of the water-bearing region of the canal; wherein the working surface is constructed such that web-shaped sealing material is able to be deployed for sealing the canal and is able to be connected together on the working surface; and a differential water level being able to be generated between water on one side of the canal working platform and water on the other side of the canal working platform; wherein sealing webs (32a,32b) are provided, which are connected together, and which are adapted to be fixed to a canal base; and which are adapted to be lowered onto the canal base by the differential water level; and wherein a water level in a not yet sealed region of a canal constitutes a lower current, and a higher water level in an already sealed region constitutes an upper current, which is separated from the lower current by the seal extending from the working platform to the canal base. a canal working platform comprising - a support structure and - a working surface which has a working plane which is held by the support structure; - a support structure and - a working surface which has a working plane which is held by the support structure;
A method of preparing a metal oxide-silica composite aerogel, the method comprising steps of: adding a metal ion solution and an acid catalyst to a water glass solution and mixing together to prepare a metal oxide-silica composite wet gel; and spray drying the metal oxide-silica composite wet gel, wherein the spray drying is performed by injecting dry gas into a drying chamber and spraying and hot air drying the metal oxide-silica composite wet gel, the spraying is performed at a rate of 0.13 l/hr to 0.195 l/h, wherein the metal ion solution is a binary metal ion solution including calcium ions (Ca 2+) and magnesium ions (Mg 2+); and wherein step is performed in a pH range of 7 to 8. adding a metal ion solution and an acid catalyst to a water glass solution and mixing together to prepare a metal oxide-silica composite wet gel; and spray drying the metal oxide-silica composite wet gel,
A method comprising: initializing, by a physical wireless device (200, 400), a plurality of virtual wireless devices (420A-D) executing on the physical wireless device (200, 400); registering with a control network by the physical wireless device (200, 400) to create and prepare at least one of the plurality of virtual wireless devices comprising: scanning the control network for initial sync messages; activating at least one of the plurality of virtual wireless devices based on receiving of an initial sync message; preparing by the activated virtual wireless device Join Messages; transmitting by the physical wireless device over the control network the Join Messages to the corresponding virtual wireless devices; and emulating a plurality of wireless sensors, by the physical wireless device (200, 400) and in the control network, by using the virtual wireless devices (420A-D), wherein each virtual wireless device (420A-D) communicates over the control network using an assigned network address, short address, or nickname as if the virtual wireless device were a physical wireless device (200, 400). initializing, by a physical wireless device (200, 400), a plurality of virtual wireless devices (420A-D) executing on the physical wireless device (200, 400); registering with a control network by the physical wireless device (200, 400) to create and prepare at least one of the plurality of virtual wireless devices comprising: scanning the control network for initial sync messages; activating at least one of the plurality of virtual wireless devices based on receiving of an initial sync message; preparing by the activated virtual wireless device Join Messages; transmitting by the physical wireless device over the control network the Join Messages to the corresponding virtual wireless devices; and scanning the control network for initial sync messages; activating at least one of the plurality of virtual wireless devices based on receiving of an initial sync message; preparing by the activated virtual wireless device Join Messages; transmitting by the physical wireless device over the control network the Join Messages to the corresponding virtual wireless devices; and emulating a plurality of wireless sensors, by the physical wireless device (200, 400) and in the control network, by using the virtual wireless devices (420A-D), wherein each virtual wireless device (420A-D) communicates over the control network using an assigned network address, short address, or nickname as if the virtual wireless device were a physical wireless device (200, 400).
A chassis component (111, 211) for a heavy vehicle having a frame structure (102, 202), comprising two spaced, longitudinal frame beams, and a load carrying structure (105, 205) configured for carrying a load applied to the vehicle, wherein the chassis component (111, 211) comprises a body, having a main portion (112, 212) and an upper portion (113, 213) mounted on top of the main portion (112, 212), said main portion (112, 212) being connectable to the frame structure (102, 202); the main portion (112, 212) is arranged to be connected to the frame structure (102, 202), for forming a transverse cross-member connecting the frame beams; and the upper portion (113, 213) is configured for being connected to the load carrying structure (105, 205), characterized in that the upper portion (113, 213) comprises one or more connection points (114, 214) for connecting the upper portion (113, 213) to one or more spring and/or damper arrangements (106,107, 206, 207) for an individual suspension of a rear wheel pair (103a, 103b, 203a, 203b) of the heavy vehicle so that, when the chassis component is connected to the heavy vehicle, at least a part of a load from the load carrying structure will be distributed to a wheel of said spring and/or damper arrangements bypassing the frame structure.
A track information generating device comprising: a self-contained navigation track acquisition unit that is adapted to acquire by inertial measurements and speed measurements, a self-contained navigation track that is a track of a vehicle, indicated by time-series pieces of self-contained navigation information; and a GPS track acquisition unit that is adapted to acquire a GPS track that is a track of the vehicle, indicated by time-series pieces of GPS information; characterised by further comprising: a self-contained navigation information correcting unit (21 d) that is adapted to compare the self-contained navigation track with the GPS track, to rotate and translate the self-contained navigation track on the basis of said comparison to obtain the highest degree of coincidence between the self-contained navigation track and the GPS track, to set a correction target for the self-contained navigation information on the basis of the track obtained by rotating and translating the self-contained navigation track, and to correct the self-contained navigation information by reducing a difference between the correction target and the self-contained navigation information. a self-contained navigation track acquisition unit that is adapted to acquire by inertial measurements and speed measurements, a self-contained navigation track that is a track of a vehicle, indicated by time-series pieces of self-contained navigation information; and a GPS track acquisition unit that is adapted to acquire a GPS track that is a track of the vehicle, indicated by time-series pieces of GPS information; characterised by further comprising: a self-contained navigation information correcting unit (21 d) that is adapted to compare the self-contained navigation track with the GPS track, to rotate and translate the self-contained navigation track on the basis of said comparison to obtain the highest degree of coincidence between the self-contained navigation track and the GPS track, to set a correction target for the self-contained navigation information on the basis of the track obtained by rotating and translating the self-contained navigation track, and to correct the self-contained navigation information by reducing a difference between the correction target and the self-contained navigation information. a self-contained navigation information correcting unit (21 d) that is adapted to compare the self-contained navigation track with the GPS track, to rotate and translate the self-contained navigation track on the basis of said comparison to obtain the highest degree of coincidence between the self-contained navigation track and the GPS track, to set a correction target for the self-contained navigation information on the basis of the track obtained by rotating and translating the self-contained navigation track, and to correct the self-contained navigation information by reducing a difference between the correction target and the self-contained navigation information.
Method for producing small bores in work pieces by using an electron beam, in which a) the work piece is placed onto an underlay, which releases a gas when energy is supplied; and b) the electron beam is directed onto the work piece until it reaches the underlay; characterized in that c) at least one operating parameter selected from the following group of parameters is changed: beam diameter, beam current, pulse duration, beam focusing, relative deviation of the electron beam from an equipment axis, path velocity of the electron beam over the work piece and energy per unit length; wherein d) the change within a beam pulse is carried out such that the manner in which the energy is introduced varies and that, by this variation, a correspondingly different melting of material of the work piece is made possible, so that bores with a bore wall deviating from a cylinder shape are produced. a) the work piece is placed onto an underlay, which releases a gas when energy is supplied; and b) the electron beam is directed onto the work piece until it reaches the underlay;
Reduction gear comprising two gears (14, 15) with different reduction ratios of the teeth (26, 27), each gear having a first toothed wheel mounted on the same first shaft and a second toothed wheel (18, 19) mounted on the same second shaft, the first toothed wheels being mobile toothed wheels (16, 17) free to slide on the first shaft and both being provided with mesh reliefs with complementary reliefs on the first shaft, said reliefs of the mobile toothed wheels being present on a lateral side of the toothed wheels, the mobile toothed wheels being installed free to rotate on the first shaft but fixed in rotation with the first shaft at corresponding gear positions in which their reliefs engage with the reliefs on the first shaft, in which the teeth (26, 27) of the mobile toothed wheels (16, 17) are helical and have inclinations in a same tangential direction relative to the first shaft, the meshing positions extending between the mobile toothed wheels, characterised in that the first shaft carries a freely sliding spacer, that can come into contact with the two mobile toothed wheels simultaneously, keeping them at a distance that prevents the gear positions from being engaged simultaneously.
An LED module, comprising: a printed circuit board, PCB, with a plurality of LEDs mounted thereon; and first and second optical cover plates each comprising an optically transmissive portion and coupled to the PCB so as to cover a respective subset of the plurality of LEDs, wherein the first and second optical cover plates have complementary geometries so that they are self-aligning in two axes, characterized in that each of the first and second optical cover plates further comprises a respective sealing groove surrounding the respective subset of the plurality of LEDs and wherein the complementary geometries bridge the respective sealing grooves of the first and second optical cover plate to form one integral sealing groove. a printed circuit board, PCB, with a plurality of LEDs mounted thereon; and first and second optical cover plates each comprising an optically transmissive portion and coupled to the PCB so as to cover a respective subset of the plurality of LEDs, wherein the first and second optical cover plates have complementary geometries so that they are self-aligning in two axes, characterized in that each of the first and second optical cover plates further comprises a respective sealing groove surrounding the respective subset of the plurality of LEDs and wherein the complementary geometries bridge the respective sealing grooves of the first and second optical cover plate to form one integral sealing groove.
Method for adjusting the illumination of headlights for a motor vehicle, including: - a step of determining zones illuminated at night by illuminating objects, wherein: - a first region of interest in an image acquired by a video camera of the vehicle is determined; and - a degree of illumination (Dg) in said first region of interest is measured; - and a step of determining the illumination mode of the headlights of the motor vehicle depending on the degree of illumination (Dg), wherein the measurement of the degree of illumination (Dg) is performed in accordance with a criterion of the brightness range in the first region of interest, said range being calculated on the basis of the mean value (MEAN) of the value of the pixels of the first region of interest and/or a criterion of the level of detail of the information contained in the first region of interest, said level of detail being calculated on the basis of the entropy (ENTROP) of the first region of interest and/or a criterion of the brightness distribution in the first region of interest, said distribution being calculated on the basis of a number of pixels (NBABOV) in the first region of interest the value of which is greater than a reference level wherein there is associated, with each criterion: - a first threshold (S1, S1', S1") that makes it possible to determine whether or not the vehicle is situated in an illuminated zone; - a second threshold (S2, S2', S2") that makes it possible to determine whether the vehicle is definitely situated in an illuminated zone; and - a third threshold (S3, S3', S3") that makes it possible to determine whether the vehicle is definitely situated in a non-illuminated zone, and wherein there is associated, with each threshold (S1, S1', S1"; S2, S2', S2"; S3, S3', S3"), respectively one counter (CT1, CT1', CT1"; CT2, CT2', CT2"; CT3, CT3', CT3") that makes it possible to determine a number of times that said associated threshold is reached over a sequence of images. - a step of determining zones illuminated at night by illuminating objects, wherein: - a first region of interest in an image acquired by a video camera of the vehicle is determined; and - a degree of illumination (Dg) in said first region of interest is measured; - a first region of interest in an image acquired by a video camera of the vehicle is determined; and - a degree of illumination (Dg) in said first region of interest is measured; - and a step of determining the illumination mode of the headlights of the motor vehicle depending on the degree of illumination (Dg), - a first threshold (S1, S1', S1") that makes it possible to determine whether or not the vehicle is situated in an illuminated zone; - a second threshold (S2, S2', S2") that makes it possible to determine whether the vehicle is definitely situated in an illuminated zone; and - a third threshold (S3, S3', S3") that makes it possible to determine whether the vehicle is definitely situated in a non-illuminated zone, and
A single-point fixing device for holding glass panes in a bending-moment-free manner with clamping fittings clamping the glass pane between them, a connecting element being supported at one clamping fitting in a ball-and-socket joint and being attachable to a sub-construction, which element has a ball head, which is supported in a hollow sphere bearing shell of the clamping fitting, wherein, orthogonally towards the longitudinal axis of the connecting element, the hollow sphere bearing shell is divided into two hollow sphere half shells (8, 9) and the clamping fitting presents a setting member clamping the hollow sphere half shells (8, 9) against each other and immobilises them, characterized in that the setting member can be set by means of wedge-like surfaces against corresponding wedge-like surfaces of a hollow sphere half-shell.
A method for predicting and/or quantifying the response of a subject to prebiotics in the prevention of diet induced weight gain, comprising a) determining a level of alpha-keto-isovalerate in a urine sample obtained from a subject that has consumed prebiotics, and b) comparing the subject's alpha-keto-isovalerate level to a predetermined reference value, wherein a decreased alpha-keto-isovalerate level, or an absence of change in the alpha-keto-isovalerate level, in the urine sample compared to the predetermined reference value indicates that the administration of prebiotics is effective in the prevention of diet induced weight gain in the subject. a) determining a level of alpha-keto-isovalerate in a urine sample obtained from a subject that has consumed prebiotics, and b) comparing the subject's alpha-keto-isovalerate level to a predetermined reference value,
A method for optimizing layered service routing of a call center, comprising: determining a compared call from the tail of a call queue when a new call arrives; wherein the call queue have different level groups; comparing a level of a level group where the new call belongs with a level of a level group where the compared call belongs; when the level of the level group where the new call belongs is lower than the level of the level group where the compared call belongs, inserting the new call after the compared call; and when the level of the level group where the new call belongs is higher than the level of the level group where the compared call belongs, judging whether a cumulative queuing duration of the compared call is larger than or equal to a level parameter threshold which is set for the level group where the compared call belongs, and inserting the new call after the compared call if the cumulative queuing duration of the compared call is larger than or equal to the level parameter threshold of the level group where the compared call belongs; and routing calls from the head of the call queue. determining a compared call from the tail of a call queue when a new call arrives; wherein the call queue have different level groups; comparing a level of a level group where the new call belongs with a level of a level group where the compared call belongs; when the level of the level group where the new call belongs is lower than the level of the level group where the compared call belongs, inserting the new call after the compared call; and when the level of the level group where the new call belongs is higher than the level of the level group where the compared call belongs, judging whether a cumulative queuing duration of the compared call is larger than or equal to a level parameter threshold which is set for the level group where the compared call belongs, and inserting the new call after the compared call if the cumulative queuing duration of the compared call is larger than or equal to the level parameter threshold of the level group where the compared call belongs; and