mhurhangee/ep-ind-claims huggingface dataset:
Method for processing requests, implemented by a domain name resolution proxy server of a first communication network accessible by a terminal of a user via a communication tunnel established to a second communication network, the proxy server being included in said first network, said processing method comprising, on receiving a request for resolution of a domain name from the terminal, sent via the communication tunnel: - a step of obtaining an identifier of the user on the basis of at least one item of information contained in a field of the request; - a step of determining, using said identifier of the user, whether or not this user is authorized to access said domain name; - if the user is authorized to access the domain name, a step of sending the terminal, via the communication tunnel, an IP address corresponding to the domain name accessible by the terminal via said second communication network; - otherwise, a step of rejecting the request from the terminal. - a step of obtaining an identifier of the user on the basis of at least one item of information contained in a field of the request; - a step of determining, using said identifier of the user, whether or not this user is authorized to access said domain name; - if the user is authorized to access the domain name, a step of sending the terminal, via the communication tunnel, an IP address corresponding to the domain name accessible by the terminal via said second communication network; - otherwise, a step of rejecting the request from the terminal.
Coating machine component, particularly a bell cup for a rotary atomizer, with a) a form shaping base body (4; 7) and b) a functional element (5, 6; 8) for mechanical stiffening of the coating machine component, wherein the functional element (5, 6; 8) is made out of a material with a greater mass density than the base body (4; 7), characterized in that c) the functional element (5, 6; 8) is a coating (5, 6; 8) which is at least partially applied to the base body (4; 7). a) a form shaping base body (4; 7) and b) a functional element (5, 6; 8) for mechanical stiffening of the coating machine component, wherein the functional element (5, 6; 8) is made out of a material with a greater mass density than the base body (4; 7), characterized in that c) the functional element (5, 6; 8) is a coating (5, 6; 8) which is at least partially applied to the base body (4; 7).
An exhaust additive distribution system for an exhaust system of an internal combustion engine, the exhaust additive distribution system comprising an exhaust additive distribution arrangement and a flexible decoupling element, wherein the exhaust additive distribution arrangement comprising an exhaust duct element, an exhaust additive injection unit, and a primary vaporization element; wherein the primary vaporization element is a tubular body arranged in the interior of the exhaust duct element, and wherein the primary vaporization element has a predefined space between an inner surface of the exhaust duct element and an outer surface of an inlet end of the primary vaporization element, and wherein the primary vaporization element protrudes from the exhaust duct element at an outlet end; and wherein the exhaust additive injection unit is arranged to inject exhaust additive liquid from a point at the inner surface of the exhaust duct element towards an inner surface of the primary vaporization element; wherein the exhaust additive injection unit is of the liquid-only type, and wherein the flexible decoupling element is arranged at an outlet end of the exhaust duct element such that the outlet end of the primary vaporization element extends into an internal volume of the flexible decoupling element, and such that there remains a predefined space between an inner surface of the flexible decoupling element and the outer surface of the primary vaporization element, characterised in that the primary vaporization element has a length that is sufficiently short to allow injected exhaust additive liquid to run off of the outlet end of the primary vaporization element, and in that the primary vaporization element extends at most 60% along a length (d) of the decoupling element in a longitudinal direction, such as at most 50% along a length of the decoupling element, or at most 40% along a length of the decoupling element and in that the exhaust additive distribution system further comprises a secondary vaporization element arranged at an outlet end of the flexible decoupling element, wherein the secondary vaporization element is an insulated duct element comprising a bend arranged to redirect the mean direction of the exhaust gas flow.
Converter comprising: at least one semiconductor module and a cooling housing, wherein the at least one semiconductor module comprises a semiconductor chip, a substrate having a first side and a second side, a base plate having a first side and a second side, and a molding material, wherein the semiconductor chip is connected to the first side of the substrate, wherein the second side of the substrate is connected to the first side of the base plate, wherein the second side of the base plate has a first region and a second region, wherein the first region has a surface extension in the form of a cooling structure, wherein, in an operating state, the first region with the surface extension is in direct contact with a coolant liquid, wherein the second region forms a closed path around the first region, wherein the cooling housing has a plate comprising at least one recess, wherein the plate is connected around the recess to the second region of the base plate by welding, characterised in that the base plate is made of aluminum silicon carbide (AlSiC) having an aluminum-rich zone on the second region.
A method for optimized rendering of contact center services in a hybrid operations environment comprising: receiving over a wide area network by a call server in a first operations environment, a signaling message transmitted by a first contact center device (1706a, 1706b) relating to a contact center service, wherein the signaling message is forwarded to the call server by an edge device coupled to a second operations environment (12a, 12b) different from the first operations environment, the edge device being a session border controller configured to hide, from the signaling message, network topology information of the first contact center device; retrieving from the signaling message, by the call server, identification information associated with the first contact center device (1706a, 1706b), the identification information being preserved in the signaling message by the session border controller when the signaling message passes through the session border controller; identifying, by the call server, a geographic location of the first contact center device (1706a, 1706b) based on the retrieved identification information; and selecting, by the call server, a second contact center device (1704a, 1704b) based on the identified geographic location of the first contact center device (1706a, 1706b) for providing the contact center service, wherein the second contact center device (1704a, 1704b) is associated with the geographic location of the first contact center device (1706a, 1706b). receiving over a wide area network by a call server in a first operations environment, a signaling message transmitted by a first contact center device (1706a, 1706b) relating to a contact center service, wherein the signaling message is forwarded to the call server by an edge device coupled to a second operations environment (12a, 12b) different from the first operations environment, the edge device being a session border controller configured to hide, from the signaling message, network topology information of the first contact center device; retrieving from the signaling message, by the call server, identification information associated with the first contact center device (1706a, 1706b), the identification information being preserved in the signaling message by the session border controller when the signaling message passes through the session border controller; identifying, by the call server, a geographic location of the first contact center device (1706a, 1706b) based on the retrieved identification information; and selecting, by the call server, a second contact center device (1704a, 1704b) based on the identified geographic location of the first contact center device (1706a, 1706b) for providing the contact center service, wherein the second contact center device (1704a, 1704b) is associated with the geographic location of the first contact center device (1706a, 1706b).
A confocal measurement device, characterized by comprising: a light source that is adapted to output white light to a first optical fiber cable; an optical coupler to which the first optical fiber cable, a second optical fiber cable, and a third optical fiber cable are connected; a sensor head that is connected to the second optical fiber cable, accommodates a diffraction lens causing a chromatic aberration in an optical-axis direction in incident white light, and applies light with a chromatic aberration caused therein to a measurement object; and a spectroscope that is connected to the third optical fiber cable, is adapted to acquire reflected light which is reflected by the measurement object and collected by the sensor head via the second optical fiber cable, the optical coupler, and the third optical fiber cable, and measure a spectrum of the reflected light, wherein the optical coupler is a filter type coupler or a spatial optical system type coupler that is adapted to bring a first transmission waveform indicating a relationship between a wavelength and an amount of light when light is transmitted from the first optical fiber cable to the second optical fiber cable and a second transmission waveform indicating a relationship between a wavelength and an amount of light when light is transmitted from the second optical fiber cable to the third optical fiber cable close to each other. a light source that is adapted to output white light to a first optical fiber cable; an optical coupler to which the first optical fiber cable, a second optical fiber cable, and a third optical fiber cable are connected; a sensor head that is connected to the second optical fiber cable, accommodates a diffraction lens causing a chromatic aberration in an optical-axis direction in incident white light, and applies light with a chromatic aberration caused therein to a measurement object; and a spectroscope that is connected to the third optical fiber cable, is adapted to acquire reflected light which is reflected by the measurement object and collected by the sensor head via the second optical fiber cable, the optical coupler, and the third optical fiber cable, and measure a spectrum of the reflected light, wherein the optical coupler is a filter type coupler or a spatial optical system type coupler that is adapted to bring a first transmission waveform indicating a relationship between a wavelength and an amount of light when light is transmitted from the first optical fiber cable to the second optical fiber cable and a second transmission waveform indicating a relationship between a wavelength and an amount of light when light is transmitted from the second optical fiber cable to the third optical fiber cable close to each other.
A method of distinguishing between an animal that has been infected with E. canis from an animal that has not been infected with E. canis, the method comprising: (a) contacting a biological sample from an animal with one or more purified polypeptides comprising the amino acid sequence set forth in SEQ ID NO: 18, SEQ ID NO: 19, SEQ ID NO: 20, SEQ ID NO: 21, SEQ ID NO: 22 or combinations thereof; and (b) detecting whether antibodies in the sample specifically bind to the one or more purified polypeptides; wherein if antibodies in the sample specifically bind to the one or more purified polypeptides, then the animal has been infected with E. canis. (a) contacting a biological sample from an animal with one or more purified polypeptides comprising the amino acid sequence set forth in SEQ ID NO: 18, SEQ ID NO: 19, SEQ ID NO: 20, SEQ ID NO: 21, SEQ ID NO: 22 or combinations thereof; and (b) detecting whether antibodies in the sample specifically bind to the one or more purified polypeptides;
A dynamic person support system (100, 400, 1100), comprising: a person support surface; a lateral rotation apparatus (108, 308) coupled to the person support surface, the lateral rotation apparatus (108, 308) comprising a plurality of independently rotatable longitudinally arranged support planes (110, 112, 114, 310, 312, 314, 1104, 1108, 1112) and a lateral rotation actuator operably coupled to one or more of the support planes (110, 112, 114, 310, 312, 314, 1104, 1108, 1112); a control unit comprising a processor and a non-transitory machine readable storage medium comprising a dynamic therapy routine, the dynamic therapy routine comprising instructions executable by the processor to cause the control unit to control the operation of the lateral rotation apparatus (108, 308) by: determining a maximum supine position duration; monitoring the actual supine position duration of a human subject positioned on the person support apparatus; and controlling the lateral rotation actuator to maintain the actual supine position duration below the maximum supine position duration, wherein the control unit is configured to compute the maximum supine position duration based on a first apnea-hypopnea index value and a second AHI value, wherein the first AHI value is determined while the human subject is in a supine position and the second AHI value is determined while the human subject is in a non-supine position. a person support surface; a lateral rotation apparatus (108, 308) coupled to the person support surface, the lateral rotation apparatus (108, 308) comprising a plurality of independently rotatable longitudinally arranged support planes (110, 112, 114, 310, 312, 314, 1104, 1108, 1112) and a lateral rotation actuator operably coupled to one or more of the support planes (110, 112, 114, 310, 312, 314, 1104, 1108, 1112); a control unit comprising a processor and a non-transitory machine readable storage medium comprising a dynamic therapy routine, the dynamic therapy routine comprising instructions executable by the processor to cause the control unit to control the operation of the lateral rotation apparatus (108, 308) by: determining a maximum supine position duration; monitoring the actual supine position duration of a human subject positioned on the person support apparatus; and controlling the lateral rotation actuator to maintain the actual supine position duration below the maximum supine position duration, determining a maximum supine position duration; monitoring the actual supine position duration of a human subject positioned on the person support apparatus; and controlling the lateral rotation actuator to maintain the actual supine position duration below the maximum supine position duration, wherein the control unit is configured to compute the maximum supine position duration based on a first apnea-hypopnea index value and a second AHI value, wherein the first AHI value is determined while the human subject is in a supine position and the second AHI value is determined while the human subject is in a non-supine position.
A method for making nano-sized polyurea particles or a dispersion of said polyurea particles having an equivalent diameter in the range of 50 nm up to 700 nm, a narrow equivalent diameter particle size distribution wherein the relative span d 90 -d 10 /d 50 < 3, preferably <2.5, a ratio of urea bonds to urethane bonds in said particles of at least 90:10, more preferably 99:1, and a glass transition temperature (Tg) of >100°C, preferably Tg >120°C, more preferably >150°C measured in a second heating cycle after heating to >220°C at 20° per minute using Differential Scanning Calorimetry, said method comprising the steps of - combining an isocyanate-reactive monoamine component with a polyisocyanate component thereby forming an urea-modified polyisocyanate component optionally dissolved in a solvent, and then - adding said urea-modified polyisocyanate component to a diamine component thereby forming polyurea particles optionallly dispersed in a solvent characterized in that the diamine component is selected from components corresponding to structure: H 2 N-(A 5) q -NH 2 Wherein - q is an integer smaller than 4 - A 5 may be a linear C2, C3 or branched C3 aliphatic group, - A 5 may be one or more aromatic group, preferably 1-4 aromatic groups, - A 5 may be an aryl-aliphatic wherein the aliphatic part is a C1 up to C6 and further comprises 1-4 aromatic groups, - A 5 may be cyclo-aliphatic group of C3 up to C15 and - A 5 may further comprise an ether group and/or one or more NH groups. - combining an isocyanate-reactive monoamine component with a polyisocyanate component thereby forming an urea-modified polyisocyanate component optionally dissolved in a solvent, and then - adding said urea-modified polyisocyanate component to a diamine component thereby forming polyurea particles optionallly dispersed in a solvent - q is an integer smaller than 4 - A 5 may be a linear C2, C3 or branched C3 aliphatic group, - A 5 may be one or more aromatic group, preferably 1-4 aromatic groups, - A 5 may be an aryl-aliphatic wherein the aliphatic part is a C1 up to C6 and further comprises 1-4 aromatic groups, - A 5 may be cyclo-aliphatic group of C3 up to C15 and - A 5 may further comprise an ether group and/or one or more NH groups.
A binder for a secondary battery electrodes comprising a copolymer consisting of: (i) 79 to 98% by weight of (a) an ethylenically unsaturated carbonic acid ester monomer and (b) at least one selected from the group consisting of a vinyl monomer and a nitrile monomer; (ii) 1 to 20% by weight of an ethylenically unsaturated carbonic acid monomer; and (iii) 1 to 20% by weight of a phosphorus -containing monomer including a P=O bond and one or more reactive double bonds in a molecular structure thereof, based on the total weight of the binder, wherein the phosphorus -containing monomer is a monomer represented by Formula 1 below: R 1 and R 3 each independently represent hydrogen or methyl; R 2 represent C 1 -C 10 alkyl; and n represents an integer of 1 to 3. (i) 79 to 98% by weight of (a) an ethylenically unsaturated carbonic acid ester monomer and (b) at least one selected from the group consisting of a vinyl monomer and a nitrile monomer; (ii) 1 to 20% by weight of an ethylenically unsaturated carbonic acid monomer; and (iii) 1 to 20% by weight of a phosphorus -containing monomer including a P=O bond and one or more reactive double bonds in a molecular structure thereof, based on the total weight of the binder, R 1 and R 3 each independently represent hydrogen or methyl; R 2 represent C 1 -C 10 alkyl; and n represents an integer of 1 to 3.
A device for applying pressure on a vaginal wall of a female subject, said device being configured for insertion into a vaginal cavity of said female subject, the device comprising: a first balloon having a resting-state and at least one deflated state, said first balloon configured to anchor said device when in said resting-state inside the vaginal cavity and to undergo deflation in response to an inner body pressure; a second balloon having a resting-state and at least one inflated state, said second balloon configured to undergo deformation to apply a second pressure on said vaginal wall operable to narrow a urethral portion said female subject; and a transmission element having: (a) a first end connected to said first deformable element, (b) a second end connected to said second deformable element, and (c) at least one hollow channel traversable by a fluid such that said fluid can flow between said balloons therethrough, said transmission element being configured for converting the deflation of said first balloon to an inflation of said second balloon, and for returning said first and second balloons (140, 142) to their respective resting states, said first balloon comprises a tapering section configured to provide the anchor in the vaginal cavity, said tapering section facing said second balloon and narrowing in the direction of said second balloon. a first balloon having a resting-state and at least one deflated state, said first balloon configured to anchor said device when in said resting-state inside the vaginal cavity and to undergo deflation in response to an inner body pressure; a second balloon having a resting-state and at least one inflated state, said second balloon configured to undergo deformation to apply a second pressure on said vaginal wall operable to narrow a urethral portion said female subject; and a transmission element having: (a) a first end connected to said first deformable element, (b) a second end connected to said second deformable element, and (c) at least one hollow channel traversable by a fluid such that said fluid can flow between said balloons therethrough, said transmission element being configured for converting the deflation of said first balloon to an inflation of said second balloon, and for returning said first and second balloons (140, 142) to their respective resting states, said first balloon comprises a tapering section configured to provide the anchor in the vaginal cavity, said tapering section facing said second balloon and narrowing in the direction of said second balloon.
A modular device for culturing cells, the device comprising: at least one open, cell culture vessel, reversibly coupled to a control plate; the control plate comprising a constant-volume pump to flow a fluid into and out of the at least one open, cell culture vessel, the constant-volume pump further comprising: a central displacement chamber having a displacement pump; at least four channels radiating out from the central displacement chamber, wherein each of the at least four channels is coupled in line with a membrane valve (462, 472). at least one open, cell culture vessel, reversibly coupled to a control plate; the control plate comprising a constant-volume pump to flow a fluid into and out of the at least one open, cell culture vessel, the constant-volume pump further comprising: a central displacement chamber having a displacement pump; at least four channels radiating out from the central displacement chamber, wherein each of the at least four channels is coupled in line with a membrane valve (462, 472). a central displacement chamber having a displacement pump; at least four channels radiating out from the central displacement chamber, wherein each of the at least four channels is coupled in line with a membrane valve (462, 472).