mhurhangee/ep-ind-claims huggingface dataset:
A method for whole slide imaging of biological samples, comprising: acquiring, during a first scan, a first plurality of registered images of a sample, wherein each image in the first plurality of images corresponds to a different of M spectral bands (104, 114, 124, 105, 125) of emission light from the sample; acquiring, during a second scan, a second plurality of registered images of the sample, wherein each image in the second plurality of images corresponds to a different of N spectral bands (104, 114, 124, 105, 125) of emission light from the sample, wherein the M spectral bands and the N spectral bands have a spectral band that is shared wherein the shared spectral band is either identical in spectral properties or not identical in spectral properties but signals in the shared spectral band respond to the same stain in the biological sample, wherein the other spectral bands differ; and using an electronic processor to: align the first and second pluralities of images based on information from a first image from the first plurality of images and a second image from the second plurality of images, wherein the first and second images correspond to the shared spectral band; and combine at least some members of the first plurality of images and at least some members of the second plurality of images to form a spatially registered multispectral image stack. acquiring, during a first scan, a first plurality of registered images of a sample, wherein each image in the first plurality of images corresponds to a different of M spectral bands (104, 114, 124, 105, 125) of emission light from the sample; acquiring, during a second scan, a second plurality of registered images of the sample, wherein each image in the second plurality of images corresponds to a different of N spectral bands (104, 114, 124, 105, 125) of emission light from the sample, wherein the M spectral bands and the N spectral bands have a spectral band that is shared wherein the shared spectral band is either identical in spectral properties or not identical in spectral properties but signals in the shared spectral band respond to the same stain in the biological sample, wherein the other spectral bands differ; and using an electronic processor to: align the first and second pluralities of images based on information from a first image from the first plurality of images and a second image from the second plurality of images, wherein the first and second images correspond to the shared spectral band; and combine at least some members of the first plurality of images and at least some members of the second plurality of images to form a spatially registered multispectral image stack. align the first and second pluralities of images based on information from a first image from the first plurality of images and a second image from the second plurality of images, wherein the first and second images correspond to the shared spectral band; and combine at least some members of the first plurality of images and at least some members of the second plurality of images to form a spatially registered multispectral image stack.
Method for producing partial or total prostheses, which method consists of the following steps: a. producing or making available a first milling block for the upper set of teeth and a second milling block for the lower set of teeth, wherein the first and second milling block each have a prosthesis base on which synthetically moulded teeth, preferably of a full set of teeth, are provided, wherein the teeth are set up for the occlusion position; b. determining the contour data of the oral cavity of a patient; c. preparing and/or processing the first and second milling block, specifically the prosthesis base, according to the contour data of the oral cavity. a. producing or making available a first milling block for the upper set of teeth and a second milling block for the lower set of teeth, wherein the first and second milling block each have a prosthesis base on which synthetically moulded teeth, preferably of a full set of teeth, are provided, wherein the teeth are set up for the occlusion position; b. determining the contour data of the oral cavity of a patient; c. preparing and/or processing the first and second milling block, specifically the prosthesis base, according to the contour data of the oral cavity.
A method for forming an abradable coating of a shroud for a gas turbine having a rotor blade, comprising the steps of: forming a metal bond layer on a base member, forming a heat-shield ceramic layer indirectly on the base member of the shroud by thermal spraying, forming a ceramic abradable layer on the heat-shield ceramic layer by thermal spraying, the abradable layer having a higher porosity than the heat-shield ceramic layer, and forming slits on the ceramic abradable layer by machining. forming a metal bond layer on a base member, forming a heat-shield ceramic layer indirectly on the base member of the shroud by thermal spraying, forming a ceramic abradable layer on the heat-shield ceramic layer by thermal spraying, the abradable layer having a higher porosity than the heat-shield ceramic layer, and forming slits on the ceramic abradable layer by machining.
An optical reading device comprising: a transportation means for conveying a medium to be scanned along a medium transportation path; an optical reading means that is disposed to the medium transportation path and is configured to optically scan the medium conveyed by the transportation means; a storage means for storing an image that is optically scanned by the optical reading means; a transmission means for transmitting the scanned image stored in the storage means to an external device; and a discharge control means for controlling the transportation means and for discharging the medium; characterized in that the discharge control means, based on a command received from the external device before the optical reading means optically scans the medium, is configured to control the transportation means and to specify whether or not to discharge the medium while the transmission means is transmitting at least the optically scanned image to the external device by executing the discharge process after scanning the medium by the optical reading means is completed even if the captured image data is still being transmitted to the external device. a transportation means for conveying a medium to be scanned along a medium transportation path; an optical reading means that is disposed to the medium transportation path and is configured to optically scan the medium conveyed by the transportation means; a storage means for storing an image that is optically scanned by the optical reading means; a transmission means for transmitting the scanned image stored in the storage means to an external device; and a discharge control means for controlling the transportation means and for discharging the medium; the discharge control means, based on a command received from the external device before the optical reading means optically scans the medium, is configured to control the transportation means and to specify whether or not to discharge the medium while the transmission means is transmitting at least the optically scanned image to the external device by executing the discharge process after scanning the medium by the optical reading means is completed even if the captured image data is still being transmitted to the external device.
A curtain coating method that supplies a coating material having been processed at a vacuum defoaming device to a curtain head, and supplies a curtain film of the coating material formed by the curtain head onto a surface of a web that is being conveyed to coat the surface of the web with the coating material, characterized in that the coating material supplied from the vacuum defoaming device to the curtain head is heated by a heating device so that temperature of the coating material approximates to temperature of the curtain head, wherein the temperature of the coating material heated by the heating device and to be supplied to the curtain head is set to be within a range of +- 5° C relative to the temperature of the curtain head.
A load balancing method, comprising: establishing, by a source policy control network element, a policy session, wherein the policy session is served by the source policy control network element; and sending, by the source policy control network element, information to a binding support network element for determination of a target policy control network element based on the information when the policy session is no longer served by the source policy control network element, as determined according to a first preset condition being satisfied, wherein the information comprises session information of the policy session and a policy session group identifier of the policy session, and wherein the policy session group identifier comprises an identifier of a policy control network element set to which the source policy control network element and a target policy control network element belong; wherein the session information of the policy session is used to indicate the policy session, wherein when the policy session is no longer served by the source policy control network element, the method further comprises: refusing, by the source policy control network element, to receive a message that is related to the policy session and that is sent by an application network element. establishing, by a source policy control network element, a policy session, wherein the policy session is served by the source policy control network element; and sending, by the source policy control network element, information to a binding support network element for determination of a target policy control network element based on the information when the policy session is no longer served by the source policy control network element, as determined according to a first preset condition being satisfied, wherein the information comprises session information of the policy session and a policy session group identifier of the policy session, and wherein the policy session group identifier comprises an identifier of a policy control network element set to which the source policy control network element and a target policy control network element belong; wherein the session information of the policy session is used to indicate the policy session, wherein when the policy session is no longer served by the source policy control network element, the method further comprises: refusing, by the source policy control network element, to receive a message that is related to the policy session and that is sent by an application network element.
A cutting head for a waterjet cutting system, the cutting head comprising: a nozzle having an orifice through which fluid passes during operation to generate a high-pressure fluid jet for processing a workpiece; an environment control device positioned to act on a surface of the workpiece at least during a measurement operation, the environment control device configured to establish a measurement area on the surface of the workpiece substantially unobstructed by fluid, vapor or particulate material; and a measurement device positioned to selectively obtain information from within the measurement area indicative of a position of a tip of the nozzle of the cutting head relative to the workpiece, characterised in that the control device is configured to generate an air stream to impinge on the surface of the workpiece. a nozzle having an orifice through which fluid passes during operation to generate a high-pressure fluid jet for processing a workpiece; an environment control device positioned to act on a surface of the workpiece at least during a measurement operation, the environment control device configured to establish a measurement area on the surface of the workpiece substantially unobstructed by fluid, vapor or particulate material; and a measurement device positioned to selectively obtain information from within the measurement area indicative of a position of a tip of the nozzle of the cutting head relative to the workpiece, characterised in that the control device is configured to generate an air stream to impinge on the surface of the workpiece.
Energy distribution network comprising a first substation, which is able to supply energy to a first subnetwork of the energy distribution network, and a second substation, which is able to supply energy to a second subnetwork of the energy distribution network, wherein - the first and the second subnetwork (TN1, TN2) are electrically linked via at least one switch in such a manner that the first subnetwork, or a subsection thereof, which is connected to the first substation is alternatively connected to the second substation by closing the at least one switch and can be supplied with energy by this second substation, characterised in that - the first and second subnetwork (TN1, TN2) are isolated from each other by at least one switch in the absence of a fault, and - the second substation is so designed that, in response to a request of the first substation by means of a request signal to supply energy to the first subnetwork, or a subsection thereof, which was previously supplied with energy by the first substation, it checks whether the second substation has sufficient resources to supply the first subnetwork or the subsection thereof and, if sufficient resources exist, starts to supply energy to the first subnetwork or the subsection of the first subnetwork. - the first and the second subnetwork (TN1, TN2) are electrically linked via at least one switch in such a manner that the first subnetwork, or a subsection thereof, which is connected to the first substation is alternatively connected to the second substation by closing the at least one switch and can be supplied with energy by this second substation, characterised in that - the first and second subnetwork (TN1, TN2) are isolated from each other by at least one switch in the absence of a fault, and - the second substation is so designed that, in response to a request of the first substation by means of a request signal to supply energy to the first subnetwork, or a subsection thereof, which was previously supplied with energy by the first substation, it checks whether the second substation has sufficient resources to supply the first subnetwork or the subsection thereof and, if sufficient resources exist, starts to supply energy to the first subnetwork or the subsection of the first subnetwork.
A communication system, comprising: a two-way radio; an audio accessory (104, 204) operatively coupled to the two-way radio, the audio accessory transmitting a message to the two-way radio in response to activation of a wireless push-to-talk, PTT, for re-transmission of the message by the two-way radio; and the audio accessory playing an audible indicator in response to the activation of the wireless PTT and the re-transmission of the message from the two-way radio, thereby confirming radio transmission of the message. a two-way radio; an audio accessory (104, 204) operatively coupled to the two-way radio, the audio accessory transmitting a message to the two-way radio in response to activation of a wireless push-to-talk, PTT, for re-transmission of the message by the two-way radio; and
Deflection roller (4a, 4b) in a traction-mechanism drive, preferably in a lift drive having lift or load-bearing belts, wherein the deflection roller (4a, 4b) is rotatably mounted and has multiple deflection pulleys (9a, 9b, 9c) arranged on a shaft for the traction mechanism(s), wherein the traction mechanism (5a, 5b, 5c) runs around or wraps around the deflection roller or deflection pulleys on an outer circumferential surface over a part of the circumference, wherein the deflection pulleys (9a, 9b, 9c) are arranged next to one another and are arranged so as to be slidably rotatable relative to the shaft and relative to one another, preferably being arranged next to one another between the bearings of a bilateral shaft bearing arrangement, characterized in that, between or next to the deflection pulleys (9a, 9b, 9c) that are arranged on the shaft, there are arranged separate flanged discs which are slidably rotatable relative to the last deflection pulley and to the shaft, wherein the flanged discs are configured for guidance of the traction mechanisms.
Apparatus for the treatment of wounds in a human or animal subject by negative pressure wound therapy (NPWT), comprising: a wound contacting member; and a cover member configured to form a sealed enclosure around the wound contacting member when the wound contacting member is applied to the wound bed, wherein the wound contacting member for negative pressure wound therapy (NPWT) comprises a network of strut elements separated by pores, wherein at least 90% of the pores have a diameter of between 2.3 and 5.5 mm, characterized in that the wound contacting member comprises at least one attribute selected from the group consisting of 1) at least 95% of the strut elements having a thickness of between 0.007 and 0.5 mm, and 2) one or more of the strut elements having a thickness of 0.23 mm or more, as measured by micro-CT (Micro Computed Tomography). a wound contacting member; and a cover member configured to form a sealed enclosure around the wound contacting member when the wound contacting member is applied to the wound bed, wherein the wound contacting member for negative pressure wound therapy (NPWT) comprises a network of strut elements separated by pores, wherein at least 90% of the pores have a diameter of between 2.3 and 5.5 mm, characterized in that the wound contacting member comprises at least one attribute selected from the group consisting of 1) at least 95% of the strut elements having a thickness of between 0.007 and 0.5 mm, and 2) one or more of the strut elements having a thickness of 0.23 mm or more, as measured by micro-CT (Micro Computed Tomography). 1) at least 95% of the strut elements having a thickness of between 0.007 and 0.5 mm, and 2) one or more of the strut elements having a thickness of 0.23 mm or more, as measured by micro-CT (Micro Computed Tomography).
An audio processing method comprising: receiving subband signals (410, 420, 430) corresponding to audio content of a reference signal in respective frequency subbands; receiving subband signals (411, 421, 431) corresponding to audio content of a response signal in the respective frequency subbands; forming filtered inband references (412, 422, 432) by applying respective filters (413, 423, 433) to the subband signals of the reference signal; and for at least one frequency subband: forming one or more filtered crossband references (424, 425) by multiplying, by one or more scalar factors (426, 427), one or more filtered inband references (412, 432) of one or more other frequency subbands; forming a composite filtered reference by summing the filtered inband reference corresponding to the frequency subband and the one or more filtered crossband references; computing a residual signal as a difference between the composite filtered reference and the subband signal of the response signal corresponding to the frequency subband; and adjusting, based on the residual signal, the one or more scalar factors and the filter applied to the subband signal of the reference signal corresponding to the frequency subband. receiving subband signals (410, 420, 430) corresponding to audio content of a reference signal in respective frequency subbands; receiving subband signals (411, 421, 431) corresponding to audio content of a response signal in the respective frequency subbands; forming filtered inband references (412, 422, 432) by applying respective filters (413, 423, 433) to the subband signals of the reference signal; and for at least one frequency subband: forming one or more filtered crossband references (424, 425) by multiplying, by one or more scalar factors (426, 427), one or more filtered inband references (412, 432) of one or more other frequency subbands; forming a composite filtered reference by summing the filtered inband reference corresponding to the frequency subband and the one or more filtered crossband references; computing a residual signal as a difference between the composite filtered reference and the subband signal of the response signal corresponding to the frequency subband; and adjusting, based on the residual signal, the one or more scalar factors and the filter applied to the subband signal of the reference signal corresponding to the frequency subband. forming one or more filtered crossband references (424, 425) by multiplying, by one or more scalar factors (426, 427), one or more filtered inband references (412, 432) of one or more other frequency subbands; forming a composite filtered reference by summing the filtered inband reference corresponding to the frequency subband and the one or more filtered crossband references; computing a residual signal as a difference between the composite filtered reference and the subband signal of the response signal corresponding to the frequency subband; and adjusting, based on the residual signal, the one or more scalar factors and the filter applied to the subband signal of the reference signal corresponding to the frequency subband.
A computer-implemented method for searching a graph in parallel, said method comprising: constructing an abstract representation of the graph using state-space abstraction, wherein the abstract representation of the graph includes one or more abstract nodes having duplicate detection scopes and one or more abstract edges having operator groups; partitioning the duplicate detection scopes of the abstract nodes into smaller duplicate detection scopes using edge partitioning, wherein the abstract edges are used to define the smaller duplicate detection scopes; and for each search layer: selecting a plurality of operator groups such that no two operator groups share the same destination abstract state; expanding nodes in the current search layer using the selected operator groups of outgoing abstract edges of the abstract nodes the nodes map to, wherein the expanding expands the nodes in parallel using operator groups associated with abstract edges having disjoint duplicate detection scopes, wherein the expanding is performed in parallel by a plurality of processing units; and, progressing to the next search layer once all the operator groups in the current search layer have been used for node expansions. constructing an abstract representation of the graph using state-space abstraction, wherein the abstract representation of the graph includes one or more abstract nodes having duplicate detection scopes and one or more abstract edges having operator groups; partitioning the duplicate detection scopes of the abstract nodes into smaller duplicate detection scopes using edge partitioning, wherein the abstract edges are used to define the smaller duplicate detection scopes; and for each search layer: selecting a plurality of operator groups such that no two operator groups share the same destination abstract state; expanding nodes in the current search layer using the selected operator groups of outgoing abstract edges of the abstract nodes the nodes map to, wherein the expanding expands the nodes in parallel using operator groups associated with abstract edges having disjoint duplicate detection scopes, wherein the expanding is performed in parallel by a plurality of processing units; and, progressing to the next search layer once all the operator groups in the current search layer have been used for node expansions. selecting a plurality of operator groups such that no two operator groups share the same destination abstract state; expanding nodes in the current search layer using the selected operator groups of outgoing abstract edges of the abstract nodes the nodes map to, wherein the expanding expands the nodes in parallel using operator groups associated with abstract edges having disjoint duplicate detection scopes, wherein the expanding is performed in parallel by a plurality of processing units; and, progressing to the next search layer once all the operator groups in the current search layer have been used for node expansions.