mhurhangee/ep-ind-claims huggingface dataset:
Connecting unit for a kitchen mixer tap, which kitchen mixer tap is configured to supply cold water, warm water and water of at least one other type, wherein the connecting unit comprises: - a cold water supply connection for supplying cold mains water; - a cold water discharge connection for discharging cold water to the kitchen mixer tap; - an auxiliary water discharge connection for discharging water of another type to the kitchen mixer tap; - an apparatus discharge connection for discharging cold water to be heated to a warm water preparation apparatus; - an apparatus supply connection for supplying water coming out of the warm water preparation apparatus; - a combination of an overpressure valve and a non-return valve (31, 32) which is coupled to the apparatus discharge connection; and wherein the connecting unit is configured to be placed under a worktop, and wherein preferably the connecting unit comprises additionally both: - a warm water discharge connection for discharging warm water to the kitchen mixer tap; and - a mixer element (37,38,39,40) coupled to the warm water discharge connection for mixing cold water and warm water. - a cold water supply connection for supplying cold mains water; - a cold water discharge connection for discharging cold water to the kitchen mixer tap; - an auxiliary water discharge connection for discharging water of another type to the - an apparatus discharge connection for discharging cold water to be heated to a warm water preparation apparatus; - an apparatus supply connection for supplying water coming out of the warm water preparation apparatus; - a combination of an overpressure valve and a non-return valve (31, 32) which is coupled to the apparatus discharge connection; and - a warm water discharge connection for discharging warm water to the kitchen mixer tap; and - a mixer element (37,38,39,40) coupled to the warm water discharge connection for mixing cold water and warm water.
An apparatus comprising: - a switching power converter including a switch having a source and a drain, a controller configured to control conductivity of said switch; characterized in that the controller includes: a power sensing system (308; 402) configured to sense an actual drain-to-source current (i DS) and an actual drain voltage (V DRAIN); and a protection system configured to, if the sensed actual drain voltage (V DRAIN) is greater than a drain threshold value (V TH_D), then to estimate an amount of power dissipated by the switch using said actual drain-to-source current and said actual drain voltage, and to determine if the estimated power dissipated by the switch exceeds a first predetermined threshold value; and a switch source control system (310; 411) to reduce the drain-to-source current through said switch in order to reduce the power dissipated by the switch when the estimated power dissipated by the switch exceeds the first predetermined threshold value. - a switching power converter including a switch having a source and a drain, a controller configured to control conductivity of said switch;
A method for removing solvent-detergent (S/D) from a biological liquid mixture or biological liquid preparation by hydrophobic interaction chromatography, comprising the steps of: providing the biological liquid mixture or preparation; and loading the mixture or preparation to HIC, and collecting a material eluted under non isocratic conditions. providing the biological liquid mixture or preparation; and loading the mixture or preparation to HIC, and collecting a material eluted under non isocratic conditions.
Method of capacitive measurement between an object and an electrode plane, in which method a processing unit is used for: - applying an excitation signal ( t) to the resistive electrode plane, and - determining a capacitance value based on a measurement from a measurement signal (s(t)) originating from the electrode plane, wherein the measurement signal being derived from an integrator having as an input a current (I(t)) supplying said plane electrode, characterized in that the excitation signal ( t) is a square or rectangular signal comprising at least one discontinuity, and in order to determine the capacitance value, the measurement signal (s(t)) is attenuated within a temporal window (τ), this temporal window (τ) being the time period during which the resistivity of the electrode plane is reflected on the measurement signal (s(t)) in response to said at least one discontinuity. - applying an excitation signal ( t) to the resistive electrode plane, and - determining a capacitance value based on a measurement from a measurement signal (s(t)) originating from the electrode plane, wherein the measurement signal being derived from an integrator having as an input a current (I(t)) supplying said plane electrode,
A continuously variable transmission (10, 900, 1000), CVT, comprising: a plurality of traction planet assemblies (30, 902) arranged angularly about a longitudinal axis of the CVT; a first stator (36, 908) coupled to each of the traction planet assemblies, the first stator provided with a plurality of radially off-set slots, the first stator configured to guide the traction planet assemblies; and a stator driver assembly (44, 100, 120) coupled to the first stator, the stator driver assembly being coaxial to the first stator, the stator drive assembly comprising: a shift tube (18, 914, 1008); and a gear set (90, 92, 94, 96; 912) coupled to the shift tube and the first stator, wherein the radially off-set slots of the first stator are adapted to couple to the traction planet assemblies, and wherein a rotation of the shift tube corresponds to a rotation of the first stator. a plurality of traction planet assemblies (30, 902) arranged angularly about a longitudinal axis of the CVT; a first stator (36, 908) coupled to each of the traction planet assemblies, the first stator provided with a plurality of radially off-set slots, the first stator configured to guide the traction planet assemblies; and a stator driver assembly (44, 100, 120) coupled to the first stator, the stator driver assembly being coaxial to the first stator, the stator drive assembly comprising: a shift tube (18, 914, 1008); and a gear set (90, 92, 94, 96; 912) coupled to the shift tube and the first stator, wherein the radially off-set slots of the first stator are adapted to couple to the traction planet assemblies, and wherein a rotation of the shift tube corresponds to a rotation of the first stator. a shift tube (18, 914, 1008); and a gear set (90, 92, 94, 96; 912) coupled to the shift tube and the first stator, wherein the radially off-set slots of the first stator are adapted to couple to the traction planet assemblies, and wherein a rotation of the shift tube corresponds to a rotation of the first stator.
A comestible product comprising a continuous bakery portion and, optionally, one or more discrete inclusions, the comestible product comprising one or more sources of cocoa butter or cocoa butter equivalent, and the continuous bakery portion comprising sorbitan tristearate.
A system comprising a first network device and a second network device, the first network device comprising: one or more memories; and one or more processors, configured to: receive packets as part of a traffic flow of an internet protocol, IP, session; select a packet that is part of the traffic flow based on a rule; generate a packet replica of the packet that has been selected; add, to the packet replica, routing information that is capable of being used to generate network performance indicators associated with the IP session; modify a portion of the packet replica to include one or more values that will cause the packet replica to fail to reach a destination device associated with the IP session; and provide the packet replica to one or more other network devices, wherein the one or more other network devices includes the second device; the second network device, in response to receiving the packet replica, is configured to: perform a validation procedure to determine that the packet replica fails the validation procedure based on the one or more values included in the packet replica, generate the network performance indicators using the routing information for the packet replica, and provide the network performance indicators to a particular device. one or more memories; and one or more processors, configured to: receive packets as part of a traffic flow of an internet protocol, IP, session; select a packet that is part of the traffic flow based on a rule; generate a packet replica of the packet that has been selected; add, to the packet replica, routing information that is capable of being used to generate network performance indicators associated with the IP session; modify a portion of the packet replica to include one or more values that will cause the packet replica to fail to reach a destination device associated with the IP session; and provide the packet replica to one or more other network devices, wherein receive packets as part of a traffic flow of an internet protocol, IP, session; select a packet that is part of the traffic flow based on a rule; generate a packet replica of the packet that has been selected; add, to the packet replica, routing information that is capable of being used to generate network performance indicators associated with the IP session; modify a portion of the packet replica to include one or more values that will cause the packet replica to fail to reach a destination device associated with the IP session; and provide the packet replica to one or more other network devices, wherein the one or more other network devices includes the second device; perform a validation procedure to determine that the packet replica fails the validation procedure based on the one or more values included in the packet replica, generate the network performance indicators using the routing information for the packet replica, and provide the network performance indicators to a particular device.
A method of improving cell expansion comprising culturing cells on a mesh substrate comprising a mixture of polydimethylsiloxane and polycaprolactone in a ratio, wherein said mesh comprises fibers of polydimethylsiloxane and polycaprolactone with a diameter of about 200 nm to about 5000 nm and a pore size of about 1 μm to about 50 μm, wherein said cells are T-cells, wherein T-cell expansion is improved relative to polycaprolactone alone by at least about 10%.
A position indicator that includes a pen-shaped chassis, a first electrode and a second electrode disposed on a side of one end of the chassis, and a signal generating circuit configured to generate a signal supplied to at least the first electrode, wherein the second electrode is disposed to surround the first electrode in such a manner that the first electrode is partly exposed in an axis-center direction of the chassis and the second electrode is composed of at least one electrode, and the position indicator includes a signal sending control circuit that is coupled to the second electrode and that is configured to control coupling of the second electrode with a reference potential to give change to a capacitive interaction between the first electrode and a sensor of a position detecting device, the capacitive interaction being formed through supply of a signal from the signal generating circuit to the first electrode, wherein the position indicator is characterized in that the signal sending control circuit includes an inductance circuit coupled to the second electrode. wherein the second electrode is disposed to surround the first electrode in such a manner that the first electrode is partly exposed in an axis-center direction of the chassis and the second electrode is composed of at least one electrode, and the position indicator includes a signal sending control circuit that is coupled to the second electrode and that is configured to control coupling of the second electrode with a reference potential to give change to a capacitive interaction between the first electrode and a sensor of a position detecting device, the capacitive interaction being formed through supply of a signal from the signal generating circuit to the first electrode, wherein the position indicator is characterized in that the signal sending control circuit includes an inductance circuit coupled to the second electrode.
System for locating persons, belonging to different groups, circulating remote work sites and for supervising and controlling remote work, which includes at each work site at least one unique RFID tag, for identifying a remote work site, - a portable mobile station for each person (w), as well as a tag reader connected to it, - a work station for each group, - a server, arranged in a telecommunications link with each mobile station, and also arranged to maintain a personnel and work register and a tag database for the remote work sites, - an operating system for reading the tags and transmitting data to the server using the mobile station, comprising an application on the mobile station and an application on the server, in which - the application on the mobile station further comprises software means - for reading the data of an RFID tag and - for entering and writing work stages and parameters, and - for transmitting data to the server characterized in that the system further comprises an application developer located in each work station, operated by means of a browser application development support of an internet browser, for creating mobile applications for different work sites, the application developer being used for creating each mobile-station application one row at a time, each row defining one controlling operation, each finished mobile-station application comprising sequential controlling operations to be performed by the said software means. - a portable mobile station for each person (w), as well as a tag reader connected to it, - a work station for each group, - a server, arranged in a telecommunications link with each mobile station, and also arranged to maintain a personnel and work register and a tag database for the remote work sites, - an operating system for reading the tags and transmitting data to the server using the mobile station, comprising an application on the mobile station and an application on the server, in which - the application on the mobile station further comprises software means - for reading the data of an RFID tag and - for entering and writing work stages and parameters, and - for transmitting data to the server - the application on the mobile station further comprises software means - for reading the data of an RFID tag and - for entering and writing work stages and parameters, and - for transmitting data to the server - for reading the data of an RFID tag and - for entering and writing work stages and parameters, and - for transmitting data to the server
A food product or part thereof comprising: (a) 0.002 to 5, preferably 0.02 to 2, more preferably 0.05 to 1 % w/w a sour tastant, wherein the sour tastant is a food-grade acid; (b) 0.001 to 2.5, preferably 0.01 to 1.25, more preferably 0.01 to 0.5 % w/w at least one flavour congruent with the sour tastant, wherein the flavour is a citrus flavour; wherein the at least one flavour is distributed homogeneously throughout the food product or part thereof; wherein the sour tastant is distributed throughout the food product or part thereof inhomogeneously such that the difference in tastant concentration between a first part of the food product or part thereof with the highest concentration of sour tastant and a second part of the food product or part thereof with the lowest concentration of sour tastant is at least 20% of the w/w concentration of the sour tastant when homogeneously distributed in the food product or part thereof; wherein the food product or part thereof can be consumed whole by a consumer; and wherein the food product or part thereof is in the form of a frozen confection. (a) 0.002 to 5, preferably 0.02 to 2, more preferably 0.05 to 1 % w/w a sour tastant, wherein the sour tastant is a food-grade acid; (b) 0.001 to 2.5, preferably 0.01 to 1.25, more preferably 0.01 to 0.5 % w/w at least one flavour congruent with the sour tastant, wherein the flavour is a citrus flavour;
An aluminum alloy for die casting consisting of: Si by more than 6.00 wt% and less than 6.50 wt%; Mg by 0.10 to 0.50 wt%; Fe by more than 0 and not more than 0.30 wt%; Mn by 0.30 to 0.60 wt%; Cr by 0.20 to 0.30 wt%; and optionally Sb by 0.05 to 0.20 wt%, Ti by 0.05 to 0.30 wt%, B by 1 to 50 ppm and/or at least one selected from Na, Sr, and Ca by 30 to 200 ppm, with the remaining portion of the aluminum alloy being Al and unavoidable impurities.
A method performed by a network device that is on a path between a client network device and a server network device, the method comprising: receiving a first packet within a User Datagram Protocol, UDP, datagram, wherein the first packet is an initial packet for a QUIC session between the client and server network devices and the UDP datagram is within an Internet Protocol, IP, packet; detecting whether a second packet for discovery information exists in the received IP packet, wherein: if no second packet exists in the received IP packet, the method comprises: creating a second packet, and inserting discovery information into the created second packet within the IP packet, and if a second packet does exist in the received IP packet, the method comprises: inserting the discovery information into the existing second packet within the IP packet, and wherein the discovery information includes a set of features supported by the network device; and transmitting the IP packet after the inserting based on destination of the IP packet. receiving a first packet within a User Datagram Protocol, UDP, datagram, wherein the first packet is an initial packet for a QUIC session between the client and server network devices and the UDP datagram is within an Internet Protocol, IP, packet; detecting whether a second packet for discovery information exists in the received IP packet, wherein: if no second packet exists in the received IP packet, the method comprises: creating a second packet, and inserting discovery information into the created second packet within the IP packet, and if a second packet does exist in the received IP packet, the method comprises: inserting the discovery information into the existing second packet within the IP packet, and wherein the discovery information includes a set of features supported by the network device; and if no second packet exists in the received IP packet, the method comprises: creating a second packet, and inserting discovery information into the created second packet within the IP packet, and creating a second packet, and inserting discovery information into the created second packet within the IP packet, and if a second packet does exist in the received IP packet, the method comprises: inserting the discovery information into the existing second packet within the IP packet, and wherein the discovery information includes a set of features supported by the network device; and transmitting the IP packet after the inserting based on destination of the IP packet.
A combination of a stretching structure and an upholstery material used for a seat or a backrest of a chair, in which the upholstery material is stretched over a closed-loop frame, the frame, in a cross section perpendicular to a longitudinal direction of the same, comprising: an upholstery-material-holding portion having an engagement groove which is open toward a back side of the frame and; a U-shaped portion having a recess which is open toward a front side of the frame and medial to the engagement groove, wherein the upholstery material is wound from the front side toward the back side of the frame along an outer circumferential surface, and a circumference of the upholstery material is engaged in the engagement groove so that the upholstery material is stretched to cover the U-shaped portion, characterized in that: a free end of an outer portion of the U-shaped portion is spaced from an outer circumference of the upholstery-material-holding portion in a direction away from the upholstery material, and a free end of the inner portion of the U-shaped portion is more spaced from the back side of the upholstery material than from the free end of the outer portion of the U-shaped portion along the direction of separating from the back side of the upholstery material, wherein a surface formed by connecting the outer circumference of the upholstery-material-holding portion, the free end of the outer portion and the free end of the inner portion is a gently curved or tilted surface concaved from the outer circumference of the upholstery-material-holding portion toward the back side of the upholstery material. an upholstery-material-holding portion having an engagement groove which is open toward a back side of the frame and; a U-shaped portion having a recess which is open toward a front side of the frame and medial to the engagement groove, a free end of an outer portion of the U-shaped portion is spaced from an outer circumference of the upholstery-material-holding portion in a direction away from the upholstery material, and a free end of the inner portion of the U-shaped portion is more spaced from the back side of the upholstery material than from the free end of the outer portion of the U-shaped portion along the direction of separating from the back side of the upholstery material, wherein a surface formed by connecting the outer circumference of the upholstery-material-holding portion, the free end of the outer portion and the free end of the inner portion is a gently curved or tilted surface concaved from the outer circumference of the upholstery-material-holding portion toward the back side of the upholstery material.
A method for producing an expansion-molded polypropylene-based resin article, in which a mold is filled with expanded polypropylene-based resin particles, and the expanded particles are heated and fused using water vapor, and then cooled, wherein expanded polypropylene-based resin particles are used in which a polypropylene-based resin having a melt index of not less than 0.1 g/10 minutes and not more than 9 g/10 minutes is used as a base resin, the shape thereof is a pillar shape with an L/D of not less than 1.5 and not more than 3, a cell size is not more than 150 μm, two melting peaks are present on a DSC curve obtained by differential scanning calorimetry, and β/(α+β) is not less than 0.35 and not more than 0.75 when taking a melting calorie at the lower temperature peak as α (J/g) and taking a melting calorie at the higher temperature peak as β (J/g), and a porosity of an obtained molded article is not less than 20% and not more than 50%.