mhurhangee/ep-ind-claims huggingface dataset:
A combustion system (1, 1A, 1C) comprising: A combustion device (10, 120) which combusts a fuel; an exhaust channel (L1, R2) through which exhaust gas generated by the fuel combusting in the combustion device (10, 120) flows; a dust collector (50, 130) which is disposed in the exhaust channel (L1, R2), and collects ash dust in the exhaust gas; and a denitration device (90, 150) which is disposed in the exhaust channel (L1, R2), and removes nitrogen oxides from the exhaust gas by way of a denitration catalyst, wherein the denitration device (90, 150) is disposed on a downstream side of the dust collector (50, 130) in the exhaust channel (L1, R2), wherein the denitration catalyst contains vanadium oxide, the vanadium oxide including vanadium pentoxide, characterised in that the denitration catalyst has a defect site at which oxygen atoms are deficient in the crystal structure of the vanadium pentoxide, and in that having the defect site at which oxygen atoms are deficient indicates an intensity ratio of peak intensity (P 6-13) on the plane of V 6 O 13, relative to peak intensity (P 2-5) on the plane of V 2 O 5, detected by powder X-ray diffraction of the denitration catalyst, being at least 0.08 and no more than 2.05. A combustion device (10, 120) which combusts a fuel; an exhaust channel (L1, R2) through which exhaust gas generated by the fuel combusting in the combustion device (10, 120) flows; a dust collector (50, 130) which is disposed in the exhaust channel (L1, R2), and collects ash dust in the exhaust gas; and a denitration device (90, 150) which is disposed in the exhaust channel (L1, R2), and removes nitrogen oxides from the exhaust gas by way of a denitration catalyst, wherein the denitration device (90, 150) is disposed on a downstream side of the dust collector (50, 130) in the exhaust channel (L1, R2), wherein the denitration catalyst contains vanadium oxide, the vanadium oxide including vanadium pentoxide, characterised in that the denitration catalyst has a defect site at which oxygen atoms are deficient in the crystal structure of the vanadium pentoxide, and in that having the defect site at which oxygen atoms are deficient indicates an intensity ratio of peak intensity (P 6-13) on the plane of V 6 O 13, relative to peak intensity (P 2-5) on the plane of V 2 O 5, detected by powder X-ray diffraction of the denitration catalyst, being at least 0.08 and no more than 2.05.
A method, wherein each step is performed by a distributed logic circuit instantiated by a set of logic circuits on a set of nodes of an interconnect fabric, for conducting a multicast transmission on the interconnect fabric, the method comprising: allocating a collection of resources to support a set of paths through the interconnect fabric, on behalf of a source node from which the multicast transmission will originate, and on a set of various nodes in the set of nodes of the interconnect fabric; aggregating a set of responses from the set of various nodes on the set of paths at a branch node on the set of paths, wherein the set of responses include responses generated in response to the set of various nodes being allocated for the multicast transmission, wherein the set of various nodes are on the set of paths and are downstream of the branch node, and wherein the set of responses include an indicator of a resource contention, wherein a path of the set of paths is a set of nodes required to support multicast transmission through the interconnect fabric; generating, at the branch node and in response to the indicator of the resource contention, a deallocate message; transmitting, from the branch node and in response to the indicator of the resource contention, the deallocate message downstream and the indicator of the resource contention upstream; deallocating, in response to the deallocate message, the collection of resources on the set of various nodes for a hold period; and reallocating resources for the multicast transmission after the hold period. allocating a collection of resources to support a set of paths through the interconnect fabric, on behalf of a source node from which the multicast transmission will originate, and on a set of various nodes in the set of nodes of the interconnect fabric; aggregating a set of responses from the set of various nodes on the set of paths at a branch node on the set of paths, wherein the set of responses include responses generated in response to the set of various nodes being allocated for the multicast transmission, wherein the set of various nodes are on the set of paths and are downstream of the branch node, and wherein the set of responses include an indicator of a resource contention, wherein a path of the set of paths is a set of nodes required to support multicast transmission through the interconnect fabric; generating, at the branch node and in response to the indicator of the resource contention, a deallocate message; transmitting, from the branch node and in response to the indicator of the resource contention, the deallocate message downstream and the indicator of the resource contention upstream; deallocating, in response to the deallocate message, the collection of resources on the set of various nodes for a hold period; and reallocating resources for the multicast transmission after the hold period.
A solid, at least three-phase active compound preparation, in which two separate phases are embedded multiparticulately into a coherent, active compound-free and antioxidant-free phase, where one of the embedded phases is antioxidant-free and comprises at least one poorly water-soluble oxidation-sensitive active compound and the second is active compound-free and comprises at least one poorly water-soluble antioxidant, where active compound-free means on average less than 1000 ppm of active compound and antioxidant-free means on average less than 1000 ppm of antioxidant and poorly water-soluble means a solubility of less than 0.1 wt% in highly purified water under standard conditions.
A multicast control method, comprising: determining, by an access control point, AC, according to local configuration, whether a basic service set identifier, BSSID, of a specified virtual access point, VAP, or a service set identifier, SSID, that will be delivered to an access point, AP, needs to enable a multicast control function, if the multicast control function needs to be enabled, sending, by the AC, a control and provisioning of wireless access point CAPWAP multicast control message that comprises multicast control enabling information to the AP, so that the AP creates a multicast control table according to the CAPWAP multicast control message that comprises the multicast control enabling information and performs multicast control according to the multicast control table, wherein the multicast control according to the multicast control table comprises multicast stream replication and multicast stream right control for a WLAN station. determining, by an access control point, AC, according to local configuration, whether a basic service set identifier, BSSID, of a specified virtual access point, VAP, or a service set identifier, SSID, that will be delivered to an access point, AP, needs to enable a multicast control function, if the multicast control function needs to be enabled, sending, by the AC, a control and provisioning of wireless access point CAPWAP multicast control message that comprises multicast control enabling information to the AP, so that the AP creates a multicast control table according to the CAPWAP multicast control message that comprises the multicast control enabling information and performs multicast control according to the multicast control table, wherein the multicast control according to the multicast control table comprises multicast stream replication and multicast stream right control for a WLAN station.
System for machining workpieces (1, 2) made of wood, plastic and the like, comprising at least one machining unit (15, 16) for end machining and longitudinal machining of the workpieces (1, 2), and comprising at least two feed units (I to IV), each of which has at least one table (4, 5) with clamping elements (19, 20) for clamping the workpieces (1, 2), which lie next to one another when viewed in the X direction and which can be moved along guides in the X direction by means of drives, wherein the two feed units (I to IV) each have at least two tables (4, 5) and wherein the tables (4, 5) of each feed unit (I to IV) can be adjusted relative to each other in the X direction and by means of further drives in the Y direction.
An electric power assisted steering assembly comprising a steering mechanism which operatively connects a steering wheel to the road wheels of a vehicle, a torque sensing means adapted to produce a first output signal indicative of the torque carried by a portion of the steering mechanism, a means for producing a second output signal indicative of the angular velocity of the portion of the steering mechanism, an electric motor operatively connected to the steering mechanism, a signal processing unit adapted to receive the two output signals and to produce therefrom an overall torque demand signal representative of a torque to be applied to the steering mechanism by the motor, and a motor drive stage adapted to provide a drive current to the motor responsive to the torque demand signal, and in that the overall torque demand signal includes a damping component that is dependent upon the second output signal, and characterised in that the means for producing the damping component includes a filter having one single pole and one single zero, and in that the second signal is passed through the filter to produce the damping component, the frequency of the pole and zero being selected such that the filter provides a band between the pole and zero within which the phase of the filtered second signal and the velocity signal are further out of phase or in phase than they are outside the band.
A non-therapeutic, non-surgical method of obtaining a parameter icomp (inlet pressure compensation coefficient) for controlling an inlet peristaltic pump in a hemofiltration system, comprising: connecting the inlet peristaltic pump, by a connecting channel, in series with an outlet peristaltic pump; pumping with the inlet peristaltic pump and the outlet peristaltic pump while measuring a pressure (112, 114) within the connecting channel between the inlet peristaltic pump and the outlet peristaltic pump; sampling the pressure until it stabilizes within a predefined time interval; varying the inlet peristaltic pump speed until the inlet peristaltic pump speed reaches a first value at which the pressure (112, 114) reaches a predefined target pressure; changing the inlet peristaltic pump speed to a second value greater than the first value and recording the pressure (112, 114) within the connecting channel corresponding to the second value; changing the inlet peristaltic pump speed to a third value smaller than the first value and recording the pressure (112, 114) within the connecting channel corresponding to the third value; fitting a line to the predefined target pressure and the inlet peristaltic pump speeds at least at the second value and the third value; and deriving the parameter icomp from a slope of the fitted line. connecting the inlet peristaltic pump, by a connecting channel, in series with an outlet peristaltic pump; pumping with the inlet peristaltic pump and the outlet peristaltic pump while measuring a pressure (112, 114) within the connecting channel between the inlet peristaltic pump and the outlet peristaltic pump; sampling the pressure until it stabilizes within a predefined time interval; varying the inlet peristaltic pump speed until the inlet peristaltic pump speed reaches a first value at which the pressure (112, 114) reaches a predefined target pressure; changing the inlet peristaltic pump speed to a second value greater than the first value and recording the pressure (112, 114) within the connecting channel corresponding to the second value; changing the inlet peristaltic pump speed to a third value smaller than the first value and recording the pressure (112, 114) within the connecting channel corresponding to the third value; fitting a line to the predefined target pressure and the inlet peristaltic pump speeds at least at the second value and the third value; and deriving the parameter icomp from a slope of the fitted line.
Method for controlling an automatic gearbox for a motor vehicle having at least two different drivetrain states, characterized in that it comprises the following steps: determining the minimum deceleration force constraint that needs to be produced by the drivetrain state as a function of the speed of the vehicle, the longitudinal acceleration and the resistive forces on the vehicle, then taking a decision in order to authorize or prohibit the drivetrain state for which the minimum deceleration force constraint has been calculated as a function of the deceleration force target, the current drivetrain state and the minimum force that can be produced by the drivetrain state in question. determining the minimum deceleration force constraint that needs to be produced by the drivetrain state as a function of the speed of the vehicle, the longitudinal acceleration and the resistive forces on the vehicle, then taking a decision in order to authorize or prohibit the drivetrain state for which the minimum deceleration force constraint has been calculated as a function of the deceleration force target, the current drivetrain state and the minimum force that can be produced by the drivetrain state in question.
A medical device for the narrowing or blocking of an anatomical channel, comprising - a band part which can be placed around the body tissue surrounding the anatomical channel and is closeable to form a ring enclosing a through opening for the body tissue, wherein the band part has a hollow chamber and wherein the through opening can be reduced in size by the introduction of a fluid into the hollow chamber, and - a pumping unit, for conveying the fluid, which has an electric drive controllable by an electronic control means of the device, wherein a pressure value corresponding to the pressure of the fluid in the hollow chamber or dependent thereon can be detected by the electronic control means, characterised in that the device has an air pressure sensor for detecting the atmospheric pressure, and in that a reference value of the pressure value detected by the electronic control means as well as a reference value of an air pressure value detected by the electronic control means by means of the air pressure sensor can be stored by the electronic control means, wherein dependent on the stored reference value of the pressure value and on the stored reference value of the air pressure value, the pressure of the fluid in the hollow chamber is adjustable by means of the electronic control means to narrow or block the anatomical channel. - a band part which can be placed around the body tissue surrounding the anatomical channel and is closeable to form a ring enclosing a through opening for the body tissue, wherein the band part has a hollow chamber and wherein the through opening can be reduced in size by the introduction of a fluid into the hollow chamber, and - a pumping unit, for conveying the fluid, which has an electric drive controllable by an electronic control means of the device, wherein a pressure value corresponding to the pressure of the fluid in the hollow chamber or dependent thereon can be detected by the electronic control means,
- An exhaust hood which is suitable for being positioned above cooking devices, comprising a body; an exhaust duct; a fan which enables the air to be sucked and discharged to the outer environment; a guiding plate which is mounted to the lower surface of the body; one or more than one temperature sensor which measures the temperature of the air rising from the cooking device by heating up; and an air suction duct which is arranged at the lower surface of the body, which extends along at least one edge of the guiding plate and to which the guiding plate guides the air, characterized by - the temperature sensor which extends from the body into the air suction duct so as to be positioned in the flow path of the sucked air in the air suction duct. - the temperature sensor which extends from the body into the air suction duct so as to be positioned in the flow path of the sucked air in the air suction duct.
A method for the prognosis of breast cancer in a subject comprising the steps of: (a) providing a first proteome sample from the subject; (b) measuring in the first proteome sample the amount of two or more biomarkers selected from the group of biomarkers in Table 1; (c) providing an additional proteome sample from the subject; (d) measuring in the additional proteome sample the amount of the two or more biomarkers measured in step (b); (e) determining the difference between the amount of the two or more biomarkers in the first proteome sample and the additional proteome sample; wherein the first proteome sample and additional proteome sample are representative of the proteome composition of the subject on different days, wherein the difference between the amount of the two or more biomarkers in the first and additional proteome samples is indicative of the risk of recurrence and/or distant metastasis of breast cancer in the subject wherein the first proteome sample from the subject is representative of the proteome composition of the subject within 4 weeks before or after tumour resection of the individual; wherein the additional proteome sample from the individual provided in step (c) is representative of the proteome composition of the subject at a time point within 3 to 9 months of tumour resection of the individual; and wherein step (b) comprises measuring Apolipoprotein A4 (APOA4) and/or ATP synthase subunit beta, mitochondrial (ATP5B). (a) providing a first proteome sample from the subject; (b) measuring in the first proteome sample the amount of two or more biomarkers selected from the group of biomarkers in Table 1; (c) providing an additional proteome sample from the subject; (d) measuring in the additional proteome sample the amount of the two or more biomarkers measured in step (b); (e) determining the difference between the amount of the two or more biomarkers in the first proteome sample and the additional proteome sample;
Process for the manufacture of an adipic acid product by a reduction of a tetrahydrofuran dicarboxylic acid compound, wherein the tetrahydrofuran dicarboxylic acid compound is tetrahydrofuran dicarboxylic acid, a hydrocarbyl ester of such acid, a metal salt of such acid or a combination thereof, wherein the tetrahydrofuran dicarboxylic acid compound is contacted with hydrogen iodide at a temperature of at least 100°C in an inert atmosphere to yield the adipic acid product.
An intraocular implant for placement in the eye, the implant comprising an optic constituting a lamina extending along a plane and having a first side and a second side separated by a thickness, wherein a series of projection portions project from the circumference of the optic, each projection portion comprising a first projection that extends from a periphery of the implant on the first side, and a second projection that extends from a periphery of the implant on the second side; the first and second projections are formed of the same material as the optic; and a groove lying substantially parallel to the plane is formed in the thickness direction of the lamina between the first and second projections of each projection portion for engagement with the lip of a single capsulotomy only formed in the lens capsule of the eye such that the lip of the lens capsule of the eye is fitted between the first and second projections of each projection portion to secure the implant at a predetermined position in the thickness direction in the eye.
A method of forming a polyolefin-based article that includes (a) incorporating into a polyolefin formulation a component that is capable of being excited by a high frequency electromagnetic field; (b) forming a substrate from the polyolefin formulation, the substrate having at least one surface; and (c) subjecting the surface of the polyolefin substrate to the high frequency electromagnetic field under conditions such that the substrate is welded to a second surface of the polyolefin substrate or to a surface of a second polyolefin substrate to form a polyolefin-based article; wherein the improvement comprises employing as a base polymer in the polyolefin formulation a polyolefin which is a homogeneously branched propylene/a-olefin copolymer having a density from 0.863 to 0.885 grams per cubic centimeter and a melt flow rate (measured at 230 °C at 2.16 kilograms) from 2 to 5 grams per 10 minutes; and provided that the base polymer has a melting temperature below 100 °C; and including as a secondary component in the polyolefin formulation from 10 percent to 40 percent, based on the weight of the polyolefin formulation, of at least one polymer selected from (a) an ethylene vinyl acetate copolymer having a vinyl acetate content from 5 weight percent to 40 weight percent, based on the weight of the ethylene vinyl acetate copolymer; (b) an ethylene-ethyl acrylate copolymer having an ethyl acrylate content from 5 percent to 25 weight percent, based on the weight of the ethylene-ethyl acrylate copolymer; and (c) a combination thereof; such that the polyolefin substrate exhibits as properties a cohesive welding failure, and a weld strength for a substrate of 0.254 mm (10 mil) thickness that is greater than 1.23 N/mm (7 pounds per inch) under welding conditions including less than or equal to 6 seconds welding time. employing as a base polymer in the polyolefin formulation a polyolefin which is a homogeneously branched propylene/a-olefin copolymer having a density from 0.863 to 0.885 grams per cubic centimeter and a melt flow rate (measured at 230 °C at 2.16 kilograms) from 2 to 5 grams per 10 minutes; and provided that the base polymer has a melting temperature below 100 °C; and including as a secondary component in the polyolefin formulation from 10 percent to 40 percent, based on the weight of the polyolefin formulation, of at least one polymer selected from (a) an ethylene vinyl acetate copolymer having a vinyl acetate content from 5 weight percent to 40 weight percent, based on the weight of the ethylene vinyl acetate copolymer; (b) an ethylene-ethyl acrylate copolymer having an ethyl acrylate content from 5 percent to 25 weight percent, based on the weight of the ethylene-ethyl acrylate copolymer; and (c) a combination thereof; (a) an ethylene vinyl acetate copolymer having a vinyl acetate content from 5 weight percent to 40 weight percent, based on the weight of the ethylene vinyl acetate copolymer; (b) an ethylene-ethyl acrylate copolymer having an ethyl acrylate content from 5 percent to 25 weight percent, based on the weight of the ethylene-ethyl acrylate copolymer; and (c) a combination thereof;