mhurhangee/ep-ind-claims huggingface dataset:
An aqueous stain resistant coating composition, comprising, one or more aqueous dispersions of self-crosslinkable polymeric particles; and one or more particulate solids, wherein the polymeric particles have a Tg of 10°C or less as determined by a Differential Scanning Calorimetry method; and wherein the particulate solids comprise a combination of sheet-like particulate solids and sphere-like particulate solids in a weight ratio of 1:1 or more, wherein the sphere-like particulate solids have an equivalent diameter of at least 0.5 μm; and wherein the coating composition has a pigment volume concentration of 45% or more as expressed by PVC = V non-binder solid V non-binder solid + V binder soild; and the coating composition has a content lower than the detection limit of the standard test GB 18582-2008 of volatile organic compounds having a boiling point lower than or equal to 250°C at 101.3 kPa.
A compound represented by the following formula: wherein R 1 is a group represented by the following formula wherein n11 is an integer of 0 to 10; R 11 is a methyl group; and R 12 is a C0-C3 alkylene group, and when n11 is an integer of 2 to 10, R 12 s may be the same as or different from each other; R 2 is a single bond or a divalent linking group; R 3 is a C1-C3 linear or branched alkylene group containing no carbonyl group; R 1, R 2, and R 3 contain nine or more carbon atoms in total; A is -COOX or -SO 3 X, wherein X is H, a metal atom, NR 4 4, imidazolium optionally containing a substituent, pyridinium optionally containing a substituent, or phosphonium optionally containing a substituent, where R 4 s are each H or an organic group and are the same as or different from each other; and any two of R 1, R 2, and R 3 optionally bind to each other to form a ring. R 1 is a group represented by the following formula wherein n11 is an integer of 0 to 10; R 11 is a methyl group; and R 12 is a C0-C3 alkylene group, and when n11 is an integer of 2 to 10, R 12 s may be the same as or different from each other; R 2 is a single bond or a divalent linking group; R 3 is a C1-C3 linear or branched alkylene group containing no carbonyl group; R 1, R 2, and R 3 contain nine or more carbon atoms in total; A is -COOX or -SO 3 X, wherein X is H, a metal atom, NR 4 4, imidazolium optionally containing a substituent, pyridinium optionally containing a substituent, or phosphonium optionally containing a substituent, where R 4 s are each H or an organic group and are the same as or different from each other; and any two of R 1, R 2, and R 3 optionally bind to each other to form a ring.
A method of providing a unified home screen at a computing device having a plurality of concurrently operating domains (410, 310, 420, 320, 330, 430), the computing device further having a home screen application (332, 432, 510, 610) and a unified package manager (342, 442, 512) executing thereon, wherein the home screen application (332, 432, 510, 610) is configured to display applications and call application program interfaces in a single operating system environment, the method comprising at the computing device: sending a request for package information from the home screen application (332, 432, 510, 610); the unified package manager (342, 442, 512) receiving the request for package information and further: requesting (522, 540), from the plurality of concurrently operating domains, package information; receiving (524, 542) package information from at least one of the plurality of concurrently operating domains; decorating (530, 544) the received package information with domain information for a domain from which the package information was received by adding a domain identifier to the received package information; providing the decorated package information to the home screen application (332, 432, 510, 610). sending a request for package information from the home screen application (332, 432, 510, 610); the unified package manager (342, 442, 512) receiving the request for package information and further: requesting (522, 540), from the plurality of concurrently operating domains, package information; receiving (524, 542) package information from at least one of the plurality of concurrently operating domains; decorating (530, 544) the received package information with domain information for a domain from which the package information was received by adding a domain identifier to the received package information; providing the decorated package information to the home screen application (332, 432, 510, 610). requesting (522, 540), from the plurality of concurrently operating domains, package information; receiving (524, 542) package information from at least one of the plurality of concurrently operating domains; decorating (530, 544) the received package information with domain information for a domain from which the package information was received by adding a domain identifier to the received package information; providing the decorated package information to the home screen application (332, 432, 510, 610).
Clamping device for clamping a component on a base, with a) a clamping bolt for clamping the component on the base, a1) wherein the clamping bolt has a mounting end which in operation is mounted in the clamping device, and a2) wherein the clamping bolt has a free end with a clamping surface inclined obliquely to a clamping direction (↔) for resting on a corresponding obliquely inclined clamping surface of the component to be clamped, wherein the oblique clamping surfaces (5, 6) of the clamping bolt on the one hand and of the component to be clamped on the other slide on one another when the clamping bolt is extended and thereby press the component to be clamped against the base, and with b) a clamping bolt drive, which can optionally retract the clamping bolt into the clamping device or extend it from the clamping device along a clamping direction (↔), characterized in c) that the clamping bolt has a securing element which can connect the clamping bolt form-fittingly to the component to be clamped and thereby secures the component to be clamped against being thrown away, and d) that the securing element is a nose which is attached to the clamping bolt and protrudes from the clamping bolt transversely to the clamping direction (↔) in order to engage in a groove in the component to be clamped. a) a clamping bolt for clamping the component on the base, a1) wherein the clamping bolt has a mounting end which in operation is mounted in the clamping device, and a2) wherein the clamping bolt has a free end with a clamping surface inclined obliquely to a clamping direction (↔) for resting on a corresponding obliquely inclined clamping surface of the component to be clamped, wherein the oblique clamping surfaces (5, 6) of the clamping bolt on the one hand and of the component to be clamped on the other slide on one another when the clamping bolt is extended and thereby press the component to be clamped against the base, and with a1) wherein the clamping bolt has a mounting end which in operation is mounted in the clamping device, and a2) wherein the clamping bolt has a free end with a clamping surface inclined obliquely to a clamping direction (↔) for resting on a corresponding obliquely inclined clamping surface of the component to be clamped, wherein the oblique clamping surfaces (5, 6) of the clamping bolt on the one hand and of the component to be clamped on the other slide on one another when the clamping bolt is extended and thereby press the component to be clamped against the base, and with b) a clamping bolt drive, which can optionally retract the clamping bolt into the clamping device or extend it from the clamping device along a clamping direction (↔), characterized in c) that the clamping bolt has a securing element which can connect the clamping bolt form-fittingly to the component to be clamped and thereby secures the component to be clamped against being thrown away, and d) that the securing element is a nose which is attached to the clamping bolt and protrudes from the clamping bolt transversely to the clamping direction (↔) in order to engage in a groove in the component to be clamped.
Rotor blade for a wind turbine, having - a rotor blade main body delimiting a rotor blade cavity, and - a rotor blade tip firmly attached to the main body of the rotor blade, with the rotor blade tip having a drainage hole fluidically coupled to the rotor blade cavity and open to a suction-side surface of the rotor blade tip, so that fluid can be discharged from the rotor blade cavity on the suction side surface of the rotor blade tip to the outside by means of the drainage hole, whereby - a bore center axis of the drainage hole is inclined in such a way with respect to a pitch axis of the rotor blade, that the bore center axis runs from the direction of a surface on the pressure side in the direction of the suction side surface of the rotor blade tip, characterized in that the bore center axis of the drainage hole runs at a certain angle with respect to the pitch axis of the rotor blade in the direction of a tip side end of the rotor blade tip. - a rotor blade main body delimiting a rotor blade cavity, and - a rotor blade tip firmly attached to the main body of the rotor blade, with the rotor blade tip having a drainage hole fluidically coupled to the rotor blade cavity and open to a suction-side surface of the rotor blade tip, so that fluid can be discharged from the rotor blade cavity on the suction side surface of the rotor blade tip to the outside by means of the drainage hole, whereby - a bore center axis of the drainage hole is inclined in such a way with respect to a pitch axis of the rotor blade, that the bore center axis runs from the direction of a surface on the pressure side in the direction of the suction side surface of the rotor blade tip, characterized in that the bore center axis of the drainage hole runs at a certain angle with respect to the pitch axis of the rotor blade in the direction of a tip side end of the rotor blade tip.
A method of making a red blood cell, comprising culturing a megakaryocyte-erythroid progenitor cell in the presence of an aryl hydrocarbon receptor (AhR) agonist.
A fluid ejection device (200, 404) comprising: nozzles (201, 406) to dispense fluid; power rails (202, 204) having a power supply rail and a reference rail; nodes (104, 106, 408, 410) on the power rails (202, 204); a bypass capacitor (102, 206, 302, 412); a first path having a first resistance, wherein the first path when activated connects the bypass capacitor (102, 206, 302, 412) between the power supply rail and the reference rail via nodes (104, 106, 408, 410); a second path having a second resistance lower than the first resistance, wherein the second path when activated connects the bypass capacitor (102, 206, 302, 412) between the nodes (104, 106, 408, 410), wherein the second path is in parallel with the first path; and a switch assembly (108, 414) that is activatable between a first state to connect the bypass capacitor (102, 206, 302, 412) between the nodes (104, 106, 408, 410), and a second state to disconnect the bypass capacitor (102, 206, 302, 412) between the nodes (104, 106, 408, 410), wherein the switch assembly (108, 414) is dynamically activatable during operation of the fluid ejection device (200, 404), the switch assembly (108, 414) comprising: a first switch (110, 208, 316, 416) adapted to activate the first path to begin charging the bypass capacitor (102, 206, 302, 410), and a second switch (112, 210, 322, 418) adapted to, a delayed time after the activating of the first path, activate the second path. nozzles (201, 406) to dispense fluid; power rails (202, 204) having a power supply rail and a reference rail; nodes (104, 106, 408, 410) on the power rails (202, 204); a bypass capacitor (102, 206, 302, 412); a first path having a first resistance, wherein the first path when activated connects the bypass capacitor (102, 206, 302, 412) between the power supply rail and the reference rail via nodes (104, 106, 408, 410); a second path having a second resistance lower than the first resistance, wherein the second path when activated connects the bypass capacitor (102, 206, 302, 412) between the nodes (104, 106, 408, 410), wherein the second path is in parallel with the first path; and a switch assembly (108, 414) that is activatable between a first state to connect the bypass capacitor (102, 206, 302, 412) between the nodes (104, 106, 408, 410), and a second state to disconnect the bypass capacitor (102, 206, 302, 412) between the nodes (104, 106, 408, 410), wherein the switch assembly (108, 414) is dynamically activatable during operation of the fluid ejection device (200, 404), the switch assembly (108, 414) comprising: a first switch (110, 208, 316, 416) adapted to activate the first path to begin charging the bypass capacitor (102, 206, 302, 410), and a second switch (112, 210, 322, 418) adapted to, a delayed time after the activating of the first path, activate the second path. a first switch (110, 208, 316, 416) adapted to activate the first path to begin charging the bypass capacitor (102, 206, 302, 410), and a second switch (112, 210, 322, 418) adapted to, a delayed time after the activating of the first path, activate the second path.
A method of identifying a contact in a communication system using voice input, the method comprising: receiving an input string of characters, the input string representing an identifier for one of multiple contacts on a contact list; receiving a voice input, spoken by a user, for establishing a communication event with said one of the contacts; using a speech recognition engine to generate a speech-recognized string from said voice signal, wherein there is no contact identifier on the contact list under a name given by said speech-recognized string; performing at least one transforming step to transform at least one character of the input string to thereby generate transformed data representing a pronounceable name for said one of the contacts; and outputting the pronounceable name for use in establishing the communication event with said one of the contacts using the voice input; wherein the at least one transforming step comprises at least one of: removing '©' and 'TM' symbols; removing leading and/or trailing numbers, replacing '00' with 'oo'; replacing '33' with 'ee'; replacing a number '1' with a letter 'i' or '1' based on a preceding character; replacing '@' with 'a'; and replacing '0' with 'o'. receiving an input string of characters, the input string representing an identifier for one of multiple contacts on a contact list; receiving a voice input, spoken by a user, for establishing a communication event with said one of the contacts; using a speech recognition engine to generate a speech-recognized string from said voice signal, wherein there is no contact identifier on the contact list under a name given by said speech-recognized string; performing at least one transforming step to transform at least one character of the input string to thereby generate transformed data representing a pronounceable name for said one of the contacts; and outputting the pronounceable name for use in establishing the communication event with said one of the contacts using the voice input; wherein the at least one transforming step comprises at least one of: removing '©' and 'TM' symbols; removing leading and/or trailing numbers, replacing '00' with 'oo'; replacing '33' with 'ee'; replacing a number '1' with a letter 'i' or '1' based on a preceding character; replacing '@' with 'a'; and replacing '0' with 'o'. removing '©' and 'TM' symbols; removing leading and/or trailing numbers, replacing '00' with 'oo'; replacing '33' with 'ee'; replacing a number '1' with a letter 'i' or '1' based on a preceding character; replacing '@' with 'a'; and replacing '0' with 'o'.
A mobile communication method comprising the steps of: notifying a mobile station of an initial value of a first offset value by a radio base station; notifying the mobile station of an initial value of a second offset value by the radio base station; characterized by performing a demodulation process on a downlink data signal in ABS by the mobile station based on the initial value of the first offset value and the initial value of the second offset value, wherein the first offset value is a value representing a ratio between transmission power on a physical downlink shared channel in a period in which a cell-specific reference signal is transmitted in ABS, and transmission power on the physical downlink shared channel in a period in which no cell-specific reference signal is transmitted in ABS, and the second offset value is a value representing a ratio between the transmission power on the physical downlink shared channel in the period in which no cell-specific reference signal is transmitted in ABS and transmission power of the cell-specific reference signal. notifying a mobile station of an initial value of a first offset value by a radio base station; notifying the mobile station of an initial value of a second offset value by the radio base station; characterized by performing a demodulation process on a downlink data signal in ABS by the mobile station based on the initial value of the first offset value and the initial value of the second offset value, wherein the first offset value is a value representing a ratio between transmission power on a physical downlink shared channel in a period in which a cell-specific reference signal is transmitted in ABS, and transmission power on the physical downlink shared channel in a period in which no cell-specific reference signal is transmitted in ABS, and the second offset value is a value representing a ratio between the transmission power on the physical downlink shared channel in the period in which no cell-specific reference signal is transmitted in ABS and transmission power of the cell-specific reference signal.
Distribution apparatus for distributing data streams (105, 107) for a control unit for a vehicle that can be driven in a highly automated manner, wherein the distribution apparatus has at least the following features: at least one first computer unit (120, 122) and at least one further computer unit (125, 127), which are designed to process sensor data streams (105, 107); a distribution device, which is designed to read in a first sensor data stream from at least one first sensor (135, 137) and at least one further sensor data stream from at least one further sensor (140, 142) and to take a current workload of the individual computer units (120, 122, 125, 127) as a basis for selectively distributing said sensor data streams to the at least one first computer unit (120, 122) or the at least one further computer unit (125, 127); and at least one connecting device, which is designed to connect the first computer unit (120, 122) and the further computer unit (125, 127) to at least one vehicle device and/or at least one further processing apparatus. at least one first computer unit (120, 122) and at least one further computer unit (125, 127), which are designed to process sensor data streams (105, 107); a distribution device, which is designed to read in a first sensor data stream from at least one first sensor (135, 137) and at least one further sensor data stream from at least one further sensor (140, 142) and to take a current workload of the individual computer units (120, 122, 125, 127) as a basis for selectively distributing said sensor data streams to the at least one first computer unit (120, 122) or the at least one further computer unit (125, 127); and at least one connecting device, which is designed to connect the first computer unit (120, 122) and the further computer unit (125, 127) to at least one vehicle device and/or at least one further processing apparatus.
A tilt detecting device, in which a fixed member and a tilting plate are relatively rotatably provided via a pivot member, either one of said fixed member or said tilting plate is integral with said pivot member, comprising a tilt detecting unit provided on either of said fixed member or said tilting plate which relatively rotates with respect to said pivot member, characterised by further comprising an angle detection pattern formed on said pivot member, wherein said tilt detecting unit comprises a light source for projecting an illumination light to said pivot member, a photodetection element for receiving the illumination light reflected by said pivot member, an optical system for projecting a pattern image of the angle detection pattern to said photodetection element and an arithmetic unit for detecting a rotation of said pivot member based on a projecting position of said pattern image projected onto said photodetection element when said pivot member rotates.
A composition for external use, comprising: Ingredient: an adenosine monophosphate and/or a salt thereof; and Ingredient: tranexamic acid and/or a salt thereof, and further comprising Ingredient: a chelating agent which is a phosphate compound selected from tripolyphosphoric acid or a salt thereof, metaphosphoric acid or a salt thereof, etidronic acid or a salt thereof, and a mixture thereof; and/or Ingredient: a pH adjuster which is an organic alkali compound. Ingredient: an adenosine monophosphate and/or a salt thereof; and Ingredient: tranexamic acid and/or a salt thereof, and further comprising Ingredient: a chelating agent which is a phosphate compound selected from tripolyphosphoric acid or a salt thereof, metaphosphoric acid or a salt thereof, etidronic acid or a salt thereof, and a mixture thereof; and/or Ingredient: a pH adjuster which is an organic alkali compound.
A method for producing a polymer by living radical polymerization of one or more radically polymerizable monomers, the method comprising: a step of performing living radical polymerization using a living radical polymerization catalyst being at least one member selected from the group consisting of alkali metal halide compounds and alkaline earth metal halide compounds as the living radical polymerization catalyst, wherein the living radical polymerization reaction is performed by adding an organic halide and a polyether compound, and halogen atom of the organic halide is iodine. a step of performing living radical polymerization using a living radical polymerization catalyst being at least one member selected from the group consisting of alkali metal halide compounds and alkaline earth metal halide compounds as the living radical polymerization catalyst, wherein the living radical polymerization reaction is performed by adding an organic halide and a polyether compound, and halogen atom of the organic halide is iodine.