mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for making peroxycarboxylic acid, comprising: a first pretreatment column, a first reaction catalyst column, a first and a second reagent vessel, a safety system, a reagent conduit, a reaction mixture conduit, and a peracid conduit; the first and second reagent vessels being in fluid communication through the reagent conduit with the first pretreatment column; the first reagent vessel being configured for containing a liquid oxidizing agent composition, the second reagent vessel being configured for containing a liquid carboxylic acid composition; the reagent conduit defining mixing chamber for the reagents; the first pretreatment column being in fluid communication through the reaction mixture conduit with the first reaction catalyst column; the first pretreatment column being configured for removing metal ion from a mixture of the carboxylic acid composition and the oxidizing agent composition; the first reaction catalyst column being configured for catalyzing a reaction of the carboxylic acid and the oxidizing agent to produce peroxycarboxylic acid; the first reaction catalyst column being in fluid communication through the peracid conduit with a site of storage or use of a peroxycarboxylic acid composition; the safety system comprising a processor, a first condition sensor, and a second condition sensor; the first condition sensor being disposed in or on the mixing chamber and being configured for measuring a condition of the reagents; the second condition sensor being disposed at or in the first pretreatment column or in the reaction mixture conduit proximal an exit from the first pretreatment column and being configured for measuring the condition of the reagents; the processor being configured for determining a difference between the condition measured by the first condition sensor and the condition measured by the second condition sensor and providing a detectable signal if the difference meets or exceeds a predetermined value.
A device of a first user for transmitting data to a device of a second user, the device of the first user comprising: a controller configured to obtain biometric information of the second user a plurality of times and to encrypt the data using an encryption key based on the obtained biometric information; and a transceiver configured to transmit, to the device of the second user, the encrypted data and to transmit, to the device of the second user, the obtained biometric information to control an access to the data by the second user; characterised in that the controller is further configured to extract feature information from each of the obtained biometric information and to generate the encryption key using an average value of pieces of feature information extracted from the obtained biometric information. a controller configured to obtain biometric information of the second user a plurality of times and to encrypt the data using an encryption key based on the obtained biometric information; and a transceiver configured to transmit, to the device of the second user, the encrypted data and to transmit, to the device of the second user, the obtained biometric information to control an access to the data by the second user; characterised in that the controller is further configured to extract feature information from each of the obtained biometric information and to generate the encryption key using an average value of pieces of feature information extracted from the obtained biometric information.
A fixing system for a composite panel, the fixing system comprising: an omega stringer having a substantially omega-shaped cross-section, wherein the omega stringer comprises a central portion and two lateral (11, 13) foot portions; characterized by a flat bar longitudinally directly connected to the central portion of the omega stringer; a sealing gasket arranged longitudinally onto the lateral (11, 13) foot portions of the omega stringer or onto the flat bar; wherein the height of the omega stringer is selected so that, in use, when a panel is clamped between the omega stringer and the flat bar, the sealing gasket is compressed between the panel and the fixing system; and a serif (11a, 13a) arranged on the foot portions (11, 13) of the omega stringer or onto the flat bar, the serif (11a, 13a) being configured to limit the compression of the sealing gasket when the panel is clamped between the omega stringer and the flat bar. an omega stringer having a substantially omega-shaped cross-section, wherein the omega stringer comprises a central portion and two lateral (11, 13) foot portions; characterized by a flat bar longitudinally directly connected to the central portion of the omega stringer; a sealing gasket arranged longitudinally onto the lateral (11, 13) foot portions of the omega stringer or onto the flat bar; wherein the height of the omega stringer is selected so that, in use, when a panel is clamped between the omega stringer and the flat bar, the sealing gasket is compressed between the panel and the fixing system; and a serif (11a, 13a) arranged on the foot portions (11, 13) of the omega stringer or onto the flat bar, the serif (11a, 13a) being configured to limit the compression of the sealing gasket when the panel is clamped between the omega stringer and the flat bar.
A method performed by a wireless device, the method comprising: generating a High-Efficiency, HE, PHY Protocol Data Unit, PPDU, for transmission, generating the HE PPDU including: setting a Packet Extension Disambiguity bit of an HE Signal-A, HE-SIG-A, field of the HE PPDU to one or zero based on a duration of a packet extension of the HE PPDU and a duration of a signal extension of the HE PPDU; and transmitting the HE PPDU, said method being characterized in that setting the Packet Extension Disambiguity bit comprises: determining whether the relationship T PE + 4 × ⌈ TXTIME − T SE − 20 4 ⌉ − TXTIME − T SE − 20 ≥ T SYM is satisfied, where T PE is the duration of the packet extension of the HE PPDU, TXTIME is a transmission time of the HE PPDU, T SE is the duration of the signal extension of the HE PPDU, and T SYM is a duration of symbols in a data field of the HE PPDU; setting the Packet Extension Disambiguity bit of the HE-SIG-A field of the HE PPDU to one when the relationship is satisfied; and setting the Packet Extension Disambiguity bit of the HE-SIG-A field of the HE PPDU to zero when the relationship is not satisfied. generating a High-Efficiency, HE, PHY Protocol Data Unit, PPDU, for transmission, generating the HE PPDU including: setting a Packet Extension Disambiguity bit of an HE Signal-A, HE-SIG-A, field of the HE PPDU to one or zero based on a duration of a packet extension of the HE PPDU and a duration of a signal extension of the HE PPDU; and setting a Packet Extension Disambiguity bit of an HE Signal-A, HE-SIG-A, field of the HE PPDU to one or zero based on a duration of a packet extension of the HE PPDU and a duration of a signal extension of the HE PPDU; and transmitting the HE PPDU, said method being setting the Packet Extension Disambiguity bit comprises: determining whether the relationship T PE + 4 × ⌈ TXTIME − T SE − 20 4 ⌉ − TXTIME − T SE − 20 ≥ T SYM is satisfied, where T PE is the duration of the packet extension of the HE PPDU, TXTIME is a transmission time of the HE PPDU, T SE is the duration of the signal extension of the HE PPDU, and T SYM is a duration of symbols in a data field of the HE PPDU; setting the Packet Extension Disambiguity bit of the HE-SIG-A field of the HE PPDU to one when the relationship is satisfied; and determining whether the relationship T PE + 4 × ⌈ TXTIME − T SE − 20 4 ⌉ − TXTIME − T SE − 20 ≥ T SYM is satisfied, where T PE is the duration of the packet extension of the HE PPDU, TXTIME is a transmission time of the HE PPDU, T SE is the duration of the signal extension of the HE PPDU, and T SYM is a duration of symbols in a data field of the HE PPDU; setting the Packet Extension Disambiguity bit of the HE-SIG-A field of the HE PPDU to one when the relationship is satisfied; and setting the Packet Extension Disambiguity bit of the HE-SIG-A field of the HE PPDU to zero when the relationship is not satisfied.
A computer program having instructions which, when executed by a computing device or system, cause said computing device or system to: - receive a video stream; - access a video picture that includes multiple pictures combined into a single picture, the multiple pictures including a first picture of a first view of a multi-view video and a second picture of a second view of the multi-view video, the video picture being part of the received video stream; - access information indicating how the multiple pictures in the accessed video picture are combined, wherein the accessed information indicates that at least one of the multiple pictures is individually flipped in one or more of a horizontal direction or a vertical direction, and wherein the accessed information is comprised in at least one of a slice header, a sequence parameter set, a picture parameter set, a network abstraction layer unit header, and a supplemental enhancement information message, the first picture of the first view being not flipped and the second picture of the second view being flipped; and - decode the video picture to provide a decoded representation of the combined multiple pictures (824, 826), wherein the accessed information (824, 826) can be used to post-process the decoded representation to individually flip the at least one of the multiple pictures. - receive a video stream; - access a video picture that includes multiple pictures combined into a single picture, the multiple pictures including a first picture of a first view of a multi-view video and a second picture of a second view of the multi-view video, the video picture being part of the received video stream; - access information indicating how the multiple pictures in the accessed video picture are combined, wherein the accessed information indicates that at least one of the multiple pictures is individually flipped in one or more of a horizontal direction or a vertical direction, and wherein the accessed information is comprised in at least one of a slice header, a sequence parameter set, a picture parameter set, a network abstraction layer unit header, and a supplemental enhancement information message, the first picture of the first view being not flipped and the second picture of the second view being flipped; and and wherein the accessed information is comprised in at least one of a slice header, a sequence parameter set, a picture parameter set, a network abstraction layer unit header, and a supplemental enhancement information message, the first picture of the first view being not flipped and the second picture of the second view being flipped; and - decode the video picture to provide a decoded representation of the combined multiple pictures (824, 826), wherein the accessed information (824, 826) can be used to post-process the decoded representation to individually flip the at least one of the multiple pictures.
Electric machine with a rotor which has a hollow shaft, which, in its interior, delimits a hollow shaft axial channel which extends in the axial direction, and into which a cooling fluid can flow during operation of the electric machine; a rotor laminated core which is attached radially on the outside to the hollow shaft and has two axial end sides (34, 35); and an axial channel which is delimited by the rotor laminated core, extends in the axial direction from the one of the two end sides of the rotor laminated core to the other one of the two end sides of the rotor laminated core, and is connected in a fluid-conducting manner to the hollow shaft axial channel, with the result that, during operation of the electric machine, the cooling fluid can flow from the hollow shaft axial channel via the axial channel in the end sides (34, 35), and can flow radially to the outside as a result of centrifugal force downstream of the axial channel, the rotor having a radial channel, via which the axial channel is connected in a fluid-conducting manner to the hollow shaft axial channel, and the rotor laminated core having at least one projection which protrudes from the radial inner side of the rotor laminated core, characterized in that the hollow shaft has at least one cut-out which is made in the radial outer side of the hollow shaft, the projection engaging into the cut-out, and in that the radial channel extends within the projection.
A stretching unit for transversely stretching elastic films (84, 86), comprising first and second stretching devices (12, 14) each comprising first and second stretching members (16, 18) having respective outer edges (24, 26) provided with gripping elements configured for gripping corresponding edges of elastic films (84, 86), wherein said first and second stretching members (16, 18) have respective first and second axes of rotation (20, 22) inclined with respect to each other, wherein said first and second stretching devices (12, 14) have respective gripping zones and respective release zones, and wherein the release zones of the first and second stretching devices (12, 14) are aligned to each other along a common transverse release line, wherein the first and second stretching devices (12, 14) are arranged on opposite sides of a central plane orthogonal to said common transverse release line, and wherein each of said first and second stretching devices (12, 14) comprises a respective driving assembly configured for driving the respective first and second stretching members (16, 18) in rotation about the respective axes of rotation (20, 22), wherein the driving assembly of each of said first and second stretching devices (12, 14) extends on only one side with respect to said central plane. wherein said first and second stretching members (16, 18) have respective first and second axes of rotation (20, 22) inclined with respect to each other, wherein said first and second stretching devices (12, 14) have respective gripping zones and respective release zones, and wherein the release zones of the first and second stretching devices (12, 14) are aligned to each other along a common transverse release line, wherein the first and second stretching devices (12, 14) are arranged on opposite sides of a central plane orthogonal to said common transverse release line, and wherein each of said first and second stretching devices (12, 14) comprises a respective driving assembly configured for driving the respective first and second stretching members (16, 18) in rotation about the respective axes of rotation (20, 22), wherein the driving assembly of each of said first and second stretching devices (12, 14) extends on only one side with respect to said central plane.
A method of manufacturing an iron (Fe)-nickel (Ni) alloy metal foil having excellent heat resilience, comprising: manufacturing the Fe-Ni alloy metal foil having a thickness of 100 μm or less excluding 0 μm and including, by wt%, Ni: 34% to 46%, Fe as a residual component of the Fe-Ni alloy metal foil, and inevitable impurities, using an electroforming method; and characterized in that it comprises: performing a heat treatment for stabilization of the Fe-Ni alloy metal foil at a heat treatment temperature of 300°C to 350°C for 5 to 30 minutes.
A polymer film, which has a first surface and a second surface, wherein the first surface has a root mean square gradient (Sdq) ranging from 1.5 to 3 and a root mean square height (Sq) ranging from 8 μm to 20 μm, wherein the Sdq and Sq are defined in accordance with ISO 25178-2:2012.
Method for the preparation of a homogenous mixture of fecal microbiota originating from at least two preselected donors comprising the following steps: a. taking at least one sample of fecal microbiota from said preselected donors, b. within a time period of less than 5 minutes after taking the sample, placing the sample obtained in a) in an oxygen-impermeable collection device, c. quality control of the samples taken, and exclusion of samples that do not meet the quality criteria, d. to each of the samples retained after the control step c), adding an aqueous saline solution comprising at least one cryoprotectant and/or a bulking agent, e. filtering the samples obtained at the end of step d) to form a series of inocula, f. grouping said inocula to form a mixture of inocula, g. homogenization of said mixture obtained in step f), in particular by manual stirring or using a stirring device, steps b) and d) to g) being carried out under anaerobiosis. a. taking at least one sample of fecal microbiota from said preselected donors, b. within a time period of less than 5 minutes after taking the sample, placing the sample obtained in a) in an oxygen-impermeable collection device, c. quality control of the samples taken, and exclusion of samples that do not meet the quality criteria, d. to each of the samples retained after the control step c), adding an aqueous saline solution comprising at least one cryoprotectant and/or a bulking agent, e. filtering the samples obtained at the end of step d) to form a series of inocula, f. grouping said inocula to form a mixture of inocula, g. homogenization of said mixture obtained in step f), in particular by manual stirring or using a stirring device, steps b) and d) to g) being carried out under anaerobiosis.
An immunomodulatory composition comprising: a) heat-killed non-pathogenic Caulobacter spp.; b) a pharmaceutically acceptable excipient; and c) an antigen derived from a pathogenic microorganism or a tumor-associated antigen. a) heat-killed non-pathogenic Caulobacter spp.; b) a pharmaceutically acceptable excipient; and c) an antigen derived from a pathogenic microorganism or a tumor-associated antigen.
A cardiac monitoring system for ambulatory patients including an ECG monitor comprising: an electrode patch having an electrode and an adhesive surface for attachment to the skin of a patient, a nonconductive watertight case; a rechargeable battery (230, 314) located in the case; an ECG signal processor located in the case and having an input for receiving ECG signals from a patient; a memory (216, 304), located in the case, for storing processed ECG signal information; a wireless transceiver, located in the case and coupled to the ECG signal processor, and operable to wirelessly transmit ECG signal information to a receiver; and an interface comprising only a plurality of electrical contacts, located on the outside of the case and electrically coupled to one or more components inside the case, wherein the ECG monitor is operable to sense that the monitor is electrically coupled to receive patient ECG signals characterized in that the ECG monitor is further operable to sense an engagement with contacts of a charging dock for charging the rechargeable battery (230, 314) and with contacts of the electrode patch for receiving the ECG signals, wherein the ECG monitor is further operable to switch to a low power consumption state when the ECG monitor does not sense an engagement with contacts of the charging dock for charging the rechargeable battery (230, 314) or with contacts of the electrode patch for receiving the ECG signals. an electrode patch having an electrode and an adhesive surface for attachment to the skin of a patient, a nonconductive watertight case; a rechargeable battery (230, 314) located in the case; an ECG signal processor located in the case and having an input for receiving ECG signals from a patient; a memory (216, 304), located in the case, for storing processed ECG signal information; a wireless transceiver, located in the case and coupled to the ECG signal processor, and operable to wirelessly transmit ECG signal information to a receiver; and an interface comprising only a plurality of electrical contacts, located on the outside of the case and electrically coupled to one or more components inside the case, wherein the ECG monitor is operable to sense that the monitor is electrically coupled to receive patient ECG signals characterized in that the ECG monitor is further operable to sense an engagement with contacts of a charging dock for charging the rechargeable battery (230, 314) and with contacts of the electrode patch for receiving the ECG signals, wherein the ECG monitor is further operable to switch to a low power consumption state when the ECG monitor does not sense an engagement with contacts of the charging dock for charging the rechargeable battery (230, 314) or with contacts of the electrode patch for receiving the ECG signals.
A system for programming electrical stimulation of a patient using an implantable electrical stimulation system comprising an implantable pulse generator and a lead (12, 100) having a plurality of electrodes (26, 120, 130), the system comprising: a processor configured to: obtain a cathodic volume of activation for monopolar cathodic stimulation using at least one cathode, wherein the cathodic VOA is an estimated volume of tissue activated by the at least one cathode using a set of stimulation parameters; obtain an anodic VOA for monopolar anodic stimulation using at least one anode, wherein the anodic VOA is an estimated volume of tissue activated by at least one anode using the set of stimulation parameters; determine to display a graphical representation of the electrodes, a graphical representation of the cathodic VOA, and a graphical representation of the anodic VOA; when the cathodic VOA or anodic VOA is modified using modification controls (438, 438a, 438b, 440, 442, 444), modify the graphical representation of the cathodic VOA or anodic VOA and determine a modified set of stimulation parameters corresponding to the modified cathodic VOA or anodic VOA; receive direction to program the implantable pulse generator with the set of stimulation parameters or modified set of stimulation parameters; and initiate a signal that provides the implantable pulse generator of the electrical stimulation system with the set of stimulation parameters or modified set of stimulation parameters for generating electrical stimulation for the patient through the electrodes of the lead. obtain a cathodic volume of activation for monopolar cathodic stimulation using at least one cathode, wherein the cathodic VOA is an estimated volume of tissue activated by the at least one cathode using a set of stimulation parameters; obtain an anodic VOA for monopolar anodic stimulation using at least one anode, wherein the anodic VOA is an estimated volume of tissue activated by at least one anode using the set of stimulation parameters; determine to display a graphical representation of the electrodes, a graphical representation of the cathodic VOA, and a graphical representation of the anodic VOA; when the cathodic VOA or anodic VOA is modified using modification controls (438, 438a, 438b, 440, 442, 444), modify the graphical representation of the cathodic VOA or anodic VOA and determine a modified set of stimulation parameters corresponding to the modified cathodic VOA or anodic VOA; receive direction to program the implantable pulse generator with the set of stimulation parameters or modified set of stimulation parameters; and initiate a signal that provides the implantable pulse generator of the electrical stimulation system with the set of stimulation parameters or modified set of stimulation parameters for generating electrical stimulation for the patient through the electrodes of the lead.