mhurhangee/patent-ind-claim-en huggingface dataset:
A method for standardizing a fluorescence microscopy imaging system, the method comprising: by a first fluorescence microscopy imaging system to be standardized, capturing a drift image comprising an image of a drift reference slide, wherein the drift reference slide comprises a colored microscopy slide, and wherein drift refers to instrument variation over time and/or environmental conditions; calculating a drift measurement using the drift image; by the first fluorescence microscopy imaging system, capturing a first normalization image comprising an image of a normalization slide, wherein the normalization slide comprises a specimen which is prepared with a fluorochrome; by a reference fluorescence microscopy imaging system, capturing a reference normalization image comprising an image of the normalization slide; comparing the first normalization image to the reference normalization image; and determining a gamma value and offset value for the first fluorescence microscopy imaging system based on the comparison, wherein the gamma value and offset value relate intensity measurements between the first fluorescence microscopy imaging system and the reference fluorescence microscopy imaging system at a given time. by a first fluorescence microscopy imaging system to be standardized, capturing a drift image comprising an image of a drift reference slide, wherein the drift reference slide comprises a colored microscopy slide, and wherein drift refers to instrument variation over time and/or environmental conditions; calculating a drift measurement using the drift image; by the first fluorescence microscopy imaging system, capturing a first normalization image comprising an image of a normalization slide, wherein the normalization slide comprises a specimen which is prepared with a fluorochrome; by a reference fluorescence microscopy imaging system, capturing a reference normalization image comprising an image of the normalization slide; comparing the first normalization image to the reference normalization image; and determining a gamma value and offset value for the first fluorescence microscopy imaging system based on the comparison, wherein the gamma value and offset value relate intensity measurements between the first fluorescence microscopy imaging system and the reference fluorescence microscopy imaging system at a given time.
An injection molding mold for an injection stretch blow molding machine including an injection molding unit , a stretch blow molding unit , and an ejection unit that are disposed under a rotating plate unit having a rotating plate having lip molds each for molding an outer peripheral surface of a preform mouth portion and transferring a preform on a bottom surface of the rotating plate , around a rotation central axis of the rotating plate , the rotating plate unit stopping and ascending or descending whenever the rotating plate rotates at a constant rotation angle, with the lip molds corresponding to the injection molding unit , the stretch blow molding unit , and the ejection unit whenever the rotating plate descends, wherein in the injection molding unit , a cavity mold and a core mold that ascends and descends insertably into the cavity mold are disposed, and the lip mold , the cavity mold , and the core mold that is inserted into the cavity mold through the lip mold are provided so as to be capable of forming the injection molding mold , the injection molding mold has a preform formation space enclosed by the lip mold , the cavity mold , and the core mold , the preform formation space is formed from a preform mouth portion forming portion , a preform body forming portion that is continuous with the preform mouth portion forming portion and has a gap width uniform and wider than a gap width of the preform mouth portion forming portion , and a preform bottom forming portion that is continuous with the preform body forming portion and has a lower end located on a side of a gate, the core mold includes a preform mouth portion inner surface forming portion corresponding to the preform mouth portion forming portion , a preform body inner surface forming portion corresponding to the preform body forming portion , and a preform bottom inner surface forming portion corresponding to the preform bottom forming portion , the core mold also including a diameter enlarging portion in which a diameter of the core mold is gradually enlarged from the preform body inner surface forming portion to the preform mouth portion inner surface forming portion , in the diameter enlarging portion , a core mold outer peripheral surface is tapered so as to be inclined outward relative to a position of an upper extension line along the core mold outer peripheral surface in the preform body inner surface forming portion , and the core mold outer peripheral surface in the diameter enlarging portion is continuous between the preform body inner surface forming portion and a portion of the preform mouth portion inner surface forming portion facing the lip mold , characterized in that the core mold outer peripheral surface in the diameter enlarging portion is inclined such that an upward extension line along the core mold outer peripheral surface of the diameter enlarging portion intersects an upper end position of the preform mouth portion forming portion .
An enhanced peroxycarboxylic acid composition for use at reduced concentrations and temperatures comprising: at least one C 1 -C 22 carboxylic acid; at least one C 1 -C 22 peroxycarboxylic acid; hydrogen peroxide; a sulfonated carboxylic acid and a corresponding sulfonated peroxycarboxylic acid; and a C 2 -C 6 alcohol; wherein the concentration of the peroxycarboxylic acids and sulfonated peroxycarboxylic acids is less than 2000 ppm and is effective against Bacillus species at temperatures at or below 50°C. at least one C 1 -C 22 carboxylic acid; at least one C 1 -C 22 peroxycarboxylic acid; hydrogen peroxide; a sulfonated carboxylic acid and a corresponding sulfonated peroxycarboxylic acid; and a C 2 -C 6 alcohol; wherein the concentration of the peroxycarboxylic acids and sulfonated peroxycarboxylic acids is less than 2000 ppm and is effective against Bacillus species at temperatures at or below 50°C.
Media data transmission and processing system comprising a first and a second data transmission network transmitting the same multimedia data as a first and a second stream of IP packets, wherein the IP packets contain media information, a PTP timestamp and a packet counter number, wherein for every packet in the first stream, the second stream contains a packet with identical media information, PTP timestamp, and sequence number, wherein the packets of the first and the second stream are provided as a first and second input stream to a processing unit , characterized in that the processing unit comprises a first and a second processing card , wherein the first and the second processing card output a processed first and second output stream, respectively, wherein the first and second processing cards assign new PTP timestamps and sequence numbers to the packets of the first and second output streams, wherein - the first and second processing cards are connected by an interconnection , - that one processing card is configured to act as a Master for the other processing card , which is configured to act as a Slave; - that the Master and Slave processing cards process the IP packets containing the same media information in a coordinated manner, in particular in a synchronous manner; - that the Master processing card is configured to assign a new PTP timestamp and packet counter number to an IP packet currently processed in the Master processing card and to communicate the new PTP timestamp and packet counter number to the Slave processing card , - that the Master processing card is configured to cause the Slave processing card to assign the PTP timestamp and packet counter number received from the Master processing card to the packet of the second stream that contains the same media information than the IP packet currently processed in the Master processing card. - the first and second processing cards are connected by an interconnection , - that one processing card is configured to act as a Master for the other processing card , which is configured to act as a Slave; - that the Master and Slave processing cards process the IP packets containing the same media information in a coordinated manner, in particular in a synchronous manner; - that the Master processing card is configured to assign a new PTP timestamp and packet counter number to an IP packet currently processed in the Master processing card and to communicate the new PTP timestamp and packet counter number to the Slave processing card , - that the Master processing card is configured to cause the Slave processing card to assign the PTP timestamp and packet counter number received from the Master processing card to the packet of the second stream that contains the same media information than the IP packet currently processed in the Master processing card.
A system for registering a three-dimensional model of a body volume to a real-time indication of a sensor position comprising: a unit for collecting reference data on a body volume; a unit for creating a three-dimensional model of said body volume, the body volume comprising voxels; a sensor insertable into a body lumen for providing real-time data relating to the location of said sensor; a system processor configured to: process said location data, when said sensor is inserted into said body lumen, wherein the location data comprises voxels and wherein the advancement rate of the sensor is noted and used to normalise the densities of the voxels such that the density of a given voxel is proportional to a probability that the sensor will occupy the given voxel; and to register the body volume to the location data, wherein an initial guess of registration is made and subsequently, the processor is configured to find , for each voxel of the processed location data, the closest candidate voxel of the body volume which matches a plurality of specific parameters, wherein said plurality of particular parameters include that the candidate voxel falls within a particular density range. a unit for collecting reference data on a body volume; a unit for creating a three-dimensional model of said body volume, the body volume comprising voxels; a sensor insertable into a body lumen for providing real-time data relating to the location of said sensor; a system processor configured to: process said location data, when said sensor is inserted into said body lumen, wherein the location data comprises voxels and wherein the advancement rate of the sensor is noted and used to normalise the densities of the voxels such that the density of a given voxel is proportional to a probability that the sensor will occupy the given voxel; and to register the body volume to the location data, wherein an initial guess of registration is made and subsequently, the processor is configured to find , for each voxel of the processed location data, the closest candidate voxel of the body volume which matches a plurality of specific parameters, wherein said plurality of particular parameters include that the candidate voxel falls within a particular density range.
Device for removing organs from the human or animal body, comprising a tube which has a proximal end and a distal end and is intended to be partially inserted into the body with its proximal end , with a tubular casing , which surrounds the tube at least in sections, and which has a proximal end and a distal end , by which it is attached to the tube , with a handling device , which is arranged on the tube and is designed to open or widen the tubular casing at its proximal end and to guide or place it around the organ , with a closing device , which is designed to close the proximal end of the tubular casing , and with a comminuting device which is provided inside the tube , preferably in the area of its proximal end , characterised in that the distal end of the tube can be connected to a suction air source and the proximal end of the tube is designed for engaging by suction with the organ to be removed.
A metrology device configured to produce measurement illumination comprising a plurality of illumination beams , each of said illumination beams being spatially incoherent or pseudo-spatially incoherent and comprising multiple pupil points in an illumination pupil of the metrology device, wherein each pupil point in each one of said plurality of illumination beams has a corresponding pupil point in at least one of the other illumination beams of said plurality of illumination beams thereby defining multiple sets of corresponding pupil points, characterized in that the pupil points of each set of corresponding pupil points are spatially coherent with respect to each other.
System comprising a plurality of interchangeable spacers (6, 6', 6") of different lengths (I, I', I") and ammunition comprising a projectile that has a cap , and a cartridge case that has a highpressure chamber and a low-pressure chamber , wherein the cartridge case is operatively connected to the projectile , and wherein the ammunition comprises one of the plurality of spacers (6, 6', 6") that can be fastened to the projectile .
Wire shaping apparatus, the apparatus comprising a forming device and a supply station for supplying a length of wire (W) to the forming device , the forming device including one or more tools for shaping a portion of the wire and cutting it from the length of wire, and characterised in that the forming device is arranged for movement independently of the supply station to place the shaped and cut wire portion in a desired position.
A genetically modified mouse comprising at an endogenous mouse CD3ε locus, a nucleic acid sequence encoding a chimeric human/mouse CD3ε protein comprising an extracellular domain of a human CD3ε protein operably linked to mouse CD3ε transmembrane and cytoplasmic domains, at an endogenous mouse CD3δ locus, a nucleic acid sequence encoding a chimeric human/mouse CD3δ protein comprising an extracellular domain of human CD3δ operably linked to mouse CD3δ transmembrane and cytoplasmic domains, and at an endogenous mouse CD3γ locus, a nucleic acid sequence encoding a chimeric human/mouse CD3γ protein comprising an extracellular domain of human CD3γ operably linked to mouse CD3γ transmembrane and cytoplasmic domains, wherein the mouse expresses on the surface of its T cells a functional humanized CD3 complex comprising the chimeric human/mouse CD3ε, CD3δ, and CD3γ proteins and wherein the endogenous mouse CD3ε, CD3δ, and CD3γ loci are genetically modified not to express functional extracellular domains of endogenous mouse CD3ε, CD3δ, and CD3γ proteins.
Detection device for detecting an event in a monitoring area , comprising an import interface for importing at least one image , the image showing a scene of the monitoring area , comprising an image analysis unit, the image analysis unit having configuration data and being designed, on the basis of the image and the configuration data, to examine the scene of the monitoring area for the presence of the event and to detect it, characterized by a disturbance variable selection unit and a configuration unit, the disturbance variable selection unit having a plurality of disturbance variables selectable by a user, the disturbance variables forming potential error sources during the detection of the event in the scene, the disturbance variables being selected from a database of the disturbance variable selection unit, the configuration unit being designed, on the basis of the selected disturbance variable (12a, b, c), to adapt the configuration data of the image analysis unit in order to suppress the associated error source. comprising an import interface for importing at least one image , the image showing a scene of the monitoring area , comprising an image analysis unit, the image analysis unit having configuration data and being designed, on the basis of the image and the configuration data, to examine the scene of the monitoring area for the presence of the event and to detect it, characterized by a disturbance variable selection unit and a configuration unit, the disturbance variable selection unit having a plurality of disturbance variables selectable by a user, the disturbance variables forming potential error sources during the detection of the event in the scene, the disturbance variables being selected from a database of the disturbance variable selection unit, the configuration unit being designed, on the basis of the selected disturbance variable (12a, b, c), to adapt the configuration data of the image analysis unit in order to suppress the associated error source.
Computer implemented method for modifying spectral imaging for gaining minimum spectral cross-contamination, characterized in that spectral channel images of a spectral cube of a scene are modified by an illumination mask, wherein the illumination mask is generated by convolutional low-pass filtering of a first spectral channel image of the spectral cube. spectral channel images of a spectral cube of a scene are modified by an illumination mask, wherein the illumination mask is generated by convolutional low-pass filtering of a first spectral channel image of the spectral cube.
A tactile button assembly comprising: at least one tactile button device suitable to be sterilized, the tactile button device comprising: at least one receptacle that is adapted to be at least partly filled with a material and being configured such that the material filled into the receptacle is at least partly displaced when subjected to a pressure, at least one duct connected to the receptacle and allowing the pressure exerted to the material to be transmitted, characterized in ; a connector connected to the at least one duct and connectable to a detection device , such that the pressure on the material is transmitted to the detection device ; a mating connector connected to the connector of the tactile button device , a detection device connected to the tactile button device via the mating connector , wherein the detection device is configured to detect the transmitted pressure on the material in the at least one filled receptacle . at least one tactile button device suitable to be sterilized, the tactile button device comprising: at least one receptacle that is adapted to be at least partly filled with a material and being configured such that the material filled into the receptacle is at least partly displaced when subjected to a pressure, at least one duct connected to the receptacle and allowing the pressure exerted to the material to be transmitted, characterized in ; a connector connected to the at least one duct and connectable to a detection device , such that the pressure on the material is transmitted to the detection device ; at least one receptacle that is adapted to be at least partly filled with a material and being configured such that the material filled into the receptacle is at least partly displaced when subjected to a pressure, at least one duct connected to the receptacle and allowing the pressure exerted to the material to be transmitted, characterized in ; a connector connected to the at least one duct and connectable to a detection device , such that the pressure on the material is transmitted to the detection device ; a mating connector connected to the connector of the tactile button device , a detection device connected to the tactile button device via the mating connector , wherein the detection device is configured to detect the transmitted pressure on the material in the at least one filled receptacle .
A method of decoding an uplink in a multiple input multiple output wireless communication system in an open radio access network having an open distributed unit, O-DU, and an open radio unit, O-RU connected via a fronthaul, wherein the O-DU performs frequency domain processing, and wherein the fronthaul has a physical uplink shared channel path and a sounding reference signal path, said method comprising: said O-DU: constructing a combining matrix for a resource block, wherein said constructing comprises multiplying a received signal vector with a whitening vector, thus converting colored interference in said received signal vector into white interference, and wherein said whitening vector is based on channel estimates from past sounding reference signal symbols; and sending said combining matrix to said O-RU; and said O-RU: utilizing said combining matrix to compress signals on N R antennas per subcarrier into M values, where N R is a number of antennas, and M is less than N R ; and sending said M values per subcarrier to said O-DU. said O-DU: constructing a combining matrix for a resource block, wherein said constructing comprises multiplying a received signal vector with a whitening vector, thus converting colored interference in said received signal vector into white interference, and wherein said whitening vector is based on channel estimates from past sounding reference signal symbols; and sending said combining matrix to said O-RU; and constructing a combining matrix for a resource block, wherein said constructing comprises multiplying a received signal vector with a whitening vector, thus converting colored interference in said received signal vector into white interference, and wherein said whitening vector is based on channel estimates from past sounding reference signal symbols; and wherein said constructing comprises multiplying a received signal vector with a whitening vector, thus converting colored interference in said received signal vector into white interference, and wherein said whitening vector is based on channel estimates from past sounding reference signal symbols; and sending said combining matrix to said O-RU; and said O-RU: utilizing said combining matrix to compress signals on N R antennas per subcarrier into M values, where N R is a number of antennas, and M is less than N R ; and sending said M values per subcarrier to said O-DU. utilizing said combining matrix to compress signals on N R antennas per subcarrier into M values, where N R is a number of antennas, and M is less than N R ; and sending said M values per subcarrier to said O-DU.