mhurhangee/ep-ind-claims huggingface dataset:
A Method for controlling a fan group in order to generate a predefined total volumetric flow, wherein the group of fans consists of a plurality of individual fans operated in parallel, each generating an individual volumetric flow, wherein the group of fans is divided into at least a first and a second control group, each comprising at least one fan, and wherein the individual volumetric flow of the at least one fan of the first control group is increased by an adjustment into a range of optimum efficiency by a change in rotational speed, while in effect maintaining a constant overall volumetric flow, and the individual volumetric flow of the at least one fan of the second control group is reduced accordingly by a reduction in rotational speed, wherein all the fans of the first and second control groups are making a contribution to the overall volumetric flow at all times.
Flavour encapsulate particle comprising a core particle, an inner coating comprising a flavour carrier matrix and a flavouring, and an outer coating layer comprising at least 80 wt.%, calculated on a dry weight basis, of an extract of a plant material, wherein the core particle is a plant material and wherein the outer coating comprises at least 80 wt.% of an extract of the core particle material.
A Converged Cable Access Platform 'CCAP' core in a Remote Physical 'R-PHY' architecture that sequentially sends a plurality of bandwidth MAP messages to a Remote Physical Device 'RPD', each MAP message sent at a time based on a calculated MAP advance time and each MAP message allocating bandwidth for the RPD during an interval beginning at a start time specified in the MAP message, characterised in that the CCAP core is capable of dynamically adjusting the MAP advance time using a measured parameter received within a message from the RPD, where the measured parameter is based on difference between the start time in the MAP message and a measurement of the time that the RPD received the MAP message from the CCAP core.
An annuloplasty ring for implantation in a mitral valve annulus designed to correct ischemic mitral valve insufficiency, the annuloplasty ring comprising: a generally oval shaped ring body oriented about a central flow axis, the flow axis defining an upward direction and a downward direction, the downward direction corresponding to the direction of blood flow through the mitral valve annulus from the left atrium to the left ventricle, and wherein in plan view as seen along the flow axis the ring body has a major axis perpendicular to a minor axis, the major and minor axes being perpendicular to the flow axis, the ring body having, in atrial plan view, an anterior section (34, 52, 66, 72, AS) generally defined between an anterolateral trigone and a posteromedial trigone, and a posterior section (36, 54, 64, 74) around the remaining periphery of the ring body and between trigones, the posterior section being divided into three sequential segments, P1, P2, and P3, starting from the anterolateral trigone and continuing in a counterclockwise direction, wherein the minor axis intersects both the anterior section and the P2 segment of the posterior section, characterized in that the ring body lies substantially in a plane defined by the major and minor axes or in a saddle-shaped three-dimensional surface except for a portion of the posterior section which is deflected downward with respect to the remaining sections of the ring body to a single apex; and, wherein, given a predetermined major axis dimension, the ratio of the minor axis dimension to the major axis dimension is less than 3:4. a generally oval shaped ring body oriented about a central flow axis, the flow axis defining an upward direction and a downward direction, the downward direction corresponding to the direction of blood flow through the mitral valve annulus from the left atrium to the left ventricle, and wherein in plan view as seen along the flow axis the ring body has a major axis perpendicular to a minor axis, the major and minor axes being perpendicular to the flow axis, the ring body having, in atrial plan view, an anterior section (34, 52, 66, 72, AS) generally defined between an anterolateral trigone and a posteromedial trigone, and a posterior section (36, 54, 64, 74) around the remaining periphery of the ring body and between trigones, the posterior section being divided into three sequential segments, P1, P2, and P3, starting from the anterolateral trigone and continuing in a counterclockwise direction, wherein the minor axis intersects both the anterior section and the P2 segment of the posterior section, characterized in that the ring body lies substantially in a plane defined by the major and minor axes or in a saddle-shaped three-dimensional surface except for a portion of the posterior section which is deflected downward with respect to the remaining sections of the ring body to a single apex; and,
A rail, particularly for in-wall frames of sliding doors, which is provided with a seat in which there slides a pair of carriages (7a, 7b), for supporting an underlying sliding door, with one end of which there is associated selectively a doorstop of the rail, wherein said rail is provided, in a transverse cross-section, with a substantially omega-like shape so as to define an upper surface, which is connected at its ends to a pair of first fins (3a, 3b), which protrude from it at right angles and are in turn connected at their ends to a pair of second fins (4a, 4b) which are arranged at right angles and at the opposite end with respect to the respective first fins (3a, 3b), below said rail there being a longitudinal opening and, internally and axially thereto, said seat for the sliding of said pair of carriages (7a, 7b), for supporting the underlying sliding door, each carriage of said pair of carriages (7a, 7b) being constituted by a body that is substantially shaped like a parallelepiped and with which two pairs of wheels (9, 10) are associated rotatably which can slide on adapted first tabs (11a, 11b) that protrude within said rail at a plane that is substantially equal to the plane of arrangement of said pair of second fins (4a, 4b), second tabs (12a, 12b) protruding axially at the ends of said body and having, in a transverse cross-section, a substantially circular shape, with at least one of which a complementarily shaped end of said doorstop accommodated slideably within said rail cooperates selectively, characterized in that below said doorstop, at said opening and externally to said rail, a flat bar is associated to the doorstop and associated selectively with said rail, the flat bar being provided with means for lateral sliding with respect to said rail, wherein said flat bar is constituted by a strip that is substantially L-shaped so as to define a first, shorter wing and a second, longer wing, which are mutually blended along a curve.
A method of generating a message for a wireless device that connects to a Wi-Fi hotspot the method comprising: receiving (802, 902), at a server and from the wireless device, a wireless network identifier included in a list of wireless network identifiers associated with a plurality of access points and stored at the wireless device, wherein the wireless network identifier is associated with an access point of the plurality of access points communicatively coupled to the wireless device; determining (804, 904) a social networking account associated with the wireless network identifier; retrieving (806, 906) content from a network based on the social networking account; and generating (808, 908) the message for the wireless device based on the content. receiving (802, 902), at a server and from the wireless device, a wireless network identifier included in a list of wireless network identifiers associated with a plurality of access points and stored at the wireless device, wherein the wireless network identifier is associated with an access point of the plurality of access points communicatively coupled to the wireless device; determining (804, 904) a social networking account associated with the wireless network identifier; retrieving (806, 906) content from a network based on the social networking account; and generating (808, 908) the message for the wireless device based on the content.
A process for the conversion of a paraffinic feed comprising hydrocarbons containing in the range 9 to 25 carbon atoms, wherein said paraffinic feed is produced from renewable resources and excludes paraffinic feeds obtained by a process comprising a step for upgrading by a Fischer-Tropsch method, said process employing a catalyst comprising at least one hydro-dehydrogenating metal selected from the group formed by metals from group VIB and from group VIII of the periodic classification of the elements, used alone or as a mixture, and a support comprising at least one Nu-10 zeolite and at least one silica-alumina, the silica-alumina used as a support for said catalyst containing an amount of silica of more than 5% by weight and less than or equal to 95% by weight, said process operating at a temperature in the range 150°C to 500°C, at a pressure in the range 0.1 MPa to 15 MPa, at an hourly space velocity in the range 0.1 to 10 h -1 and in the presence of a total quantity of hydrogen mixed with the feed such that the hydrogen/feed ratio is in the range 70 to 2000 Nm 3 /m 3 of feed, wherein said catalyst contains a binder, said catalyst comprising a total amount of Nu-10 zeolite and silica-alumina in the range 1.5% to 94.5% by weight with respect to the total mass of said catalyst, the content by weight of Nu-10 zeolite being less than the content by weight of silica-alumina; or wherein said catalyst does not contain any binder, said catalyst comprising a total amount of Nu-10 zeolite and silica-alumina of at least 50% by weight with respect to the total mass of said catalyst, the content by weight of Nu-10 zeolite being less than the content by weight of silica-alumina.
A composition comprising a particulate solid, a non-polar organic medium, and a compound obtained/obtainable by reacting an aromatic amine with a hydrocarbyl-substituted acylating agent, wherein the hydrocarbyl-substituted acylating agent is selected from the group consisting of a polyester oligomer or polyester polymer derived from condensation polymerisation of a hydroxy-substituted C 10-30 carboxylic acid, an optionally hydroxy-substituted C 10-30 carboxylic acid, a C 10-30 -hydrocarbyl substituted acylating agent, and a polyolefin-substituted acylating agent.
Deaeration device for deaeration of an application installation which has a fluid conducting system connecting an application nozzle with a fluid source, comprising - a nozzle docking device with a nozzle receiving space (2.1) and an elastic cuff sleeve (2.2), wherein the cuff sleeve (2.2) has in an axial direction of the nozzle docking device a passage (2.3) for the application nozzle, which has an outer surface (11.3), into the nozzle receiving space (2.1), wherein the cuff sleeve (2.2) on introduction of the application nozzle into the nozzle receiving space (2.1) is spaced from the outer surface (11.3) of the application nozzle and the cuff sleeve (2.2) after the introduction of the application nozzle bears against the outer surface (11.3) of the application nozzle so as to seal the nozzle receiving space (2.1) relative to the environment, - an axially displaceable widening ring (2.4) in order to space the cuff sleeve (2.2) from the outer surface (11.3) prior to introduction of the application nozzle and - a vacuum pump which is connected with the nozzle receiving space (2.1) in order to suck liquid from the application nozzle. - a nozzle docking device with a nozzle receiving space (2.1) and an elastic cuff sleeve (2.2), wherein the cuff sleeve (2.2) has in an axial direction of the nozzle docking device a passage (2.3) for the application nozzle, which has an outer surface (11.3), into the nozzle receiving space (2.1), wherein the cuff sleeve (2.2) on introduction of the application nozzle into the nozzle receiving space (2.1) is spaced from the outer surface (11.3) of the application nozzle and the cuff sleeve (2.2) after the introduction of the application nozzle bears against the outer surface (11.3) of the application nozzle so as to seal the nozzle receiving space (2.1) relative to the environment, - an axially displaceable widening ring (2.4) in order to space the cuff sleeve (2.2) from the outer surface (11.3) prior to introduction of the application nozzle and - a vacuum pump which is connected with the nozzle receiving space (2.1) in order to suck liquid from the application nozzle.
A communication port for a bus node for a ring bus, having an input for receiving data and an output for transmitting data, and having means for detecting a signal off condition at the input, characterized by being configured for, after a signal off condition has been detected, checking whether a shutdown flag has been received and in case of no received shutdown flag saving its internal status "signal off" and for performing the steps of - configuring itself as timing master for the bus, - setting a shutdown flag which is forwarded over the bus to other bus nodes (20, 30, 40), - waiting a predetermined time, - switching the output signal off, and in case of a received shutdown flag performing the steps of - saving its internal status "no fault saved", - switching the output signal off. - configuring itself as timing master for the bus, - setting a shutdown flag which is forwarded over the bus to other bus nodes (20, 30, 40), - waiting a predetermined time, - switching the output signal off, and - saving its internal status "no fault saved", - switching the output signal off.
A robotic work tool system comprising a robotic work tool comprising a lift/collision detection sensor, said lift/collision detection sensor comprising a polarity element and at least a first sensing element and a second sensing element (192"), wherein the polarity element has a first and a second polarity and wherein the first and second sensing elements are configured to each sense a polarity of the polarity element, characterized in that said robotic work tool is configured to detect a polarity change in the first sensing element and in the second sensing element (192") and in response thereto determine that a lift has been detected, and detect a polarity change in the first sensing element but not in the second sensing element (192") and in response thereto determine that a collision has been detected.
A method of manufacturing a three-dimensional, 3D, semiconductor device comprising a plurality of cells, each of which comprising a gate structure and a portion of a channel, wherein the method comprises the steps of: providing a horizontal layer structure (102, 104) above a crystalline semiconductor substrate, wherein the step of providing a horizontal layer structure comprises providing alternating layers of a gate material and an insulating material, wherein each of the gate structures of the plurality of cells comprises a respective layer of the gate material; forming an opening that extends vertically through the horizontal layer structure (102, 104) to the substrate; lining an inside surface of the opening with a gate stack comprising insulating layers; removing a horizontal part of the gate stack such that the opening extends to the substrate; lining the inside surface of the opening with a sacrificial material layer; filling the opening with a filling material; removing parts of the sacrificial material layer to form a recess extending down to the substrate; and forming the channel by epitaxially growing, in the recess, a channel material upwards from the substrate so that said gate stack separates each gate structure from said respective portion of the channel characterized in that said filling material is a filling oxide material. providing a horizontal layer structure (102, 104) above a crystalline semiconductor substrate, wherein the step of providing a horizontal layer structure comprises providing alternating layers of a gate material and an insulating material, wherein each of the gate structures of the plurality of cells comprises a respective layer of the gate material; forming an opening that extends vertically through the horizontal layer structure (102, 104) to the substrate; lining an inside surface of the opening with a gate stack comprising insulating layers; removing a horizontal part of the gate stack such that the opening extends to the substrate; lining the inside surface of the opening with a sacrificial material layer; filling the opening with a filling material; removing parts of the sacrificial material layer to form a recess extending down to the substrate; and forming the channel by epitaxially growing, in the recess, a channel material upwards from the substrate so that said gate stack separates each gate structure from said respective portion of the channel characterized in that said filling material is a filling oxide material.
A gas turbine engine comprising: turbine exhaust case comprising an engine flange; an exhaust center body; and a pivoting attachment feature coupling the exhaust center body to the engine flange of the turbine exhaust case; and characterized by further comprising, a sealing member disposed radially between the engine flange and the exhaust body, and wherein the sealing member is configured to resiliently and reversibly collapse when the engine flange is in a thermally expanded state. turbine exhaust case comprising an engine flange; an exhaust center body; and a pivoting attachment feature coupling the exhaust center body to the engine flange of the turbine exhaust case; and characterized by further comprising, a sealing member disposed radially between the engine flange and the exhaust body, and wherein the sealing member is configured to resiliently and reversibly collapse when the engine flange is in a thermally expanded state.
An in vitro method for selecting a patient affected with a tumor for a treatment with an antitumor compound or for predicting the response of a patient affected with a tumor to a treatment with an antitumor compound, wherein the method comprises: (a) measuring the expression level of CDA (Cytidine Deaminase) in a cancer sample from said patient, (b) comparing the CDA expression level of the cancer sample to a reference expression level, wherein a CDA expression level of the cancer sample lower than the reference expression level is predictive of the efficacy of a treatment with an antitumor compound being aminoflavone, and/or wherein a CDA expression level of the cancer sample higher than the reference expression level is predictive of the efficacy of a treatment with an antitumor compound being dasatinib, (c) selecting patients with CDA expression level of their cancer sample lower than the reference expression level as suitable for a treatment with an antitumor compound being aminoflavone and/or selecting patients with CDA expression level of their cancer sample higher than the reference expression level for a treatment with an antitumor compound being dasatinib. (a) measuring the expression level of CDA (Cytidine Deaminase) in a cancer sample from said patient, (b) comparing the CDA expression level of the cancer sample to a reference expression level, wherein a CDA expression level of the cancer sample lower than the reference expression level is predictive of the efficacy of a treatment with an antitumor compound being aminoflavone, and/or wherein a CDA expression level of the cancer sample higher than the reference expression level is predictive of the efficacy of a treatment with an antitumor compound being dasatinib, (c) selecting patients with CDA expression level of their cancer sample lower than the reference expression level as suitable for a treatment with an antitumor compound being aminoflavone and/or selecting patients with CDA expression level of their cancer sample higher than the reference expression level for a treatment with an antitumor compound being dasatinib.
A method of scavenging power in a circuit including a power source generating electric current and a power consuming device having a time-variable power requirement, the method comprising: connecting a power scavenging device having an input terminal pair and an output terminal pair to the circuit via the input terminal pair, said power scavenging device further comprising an input voltage regulating circuit, an accumulation element (44, 155) and a boost DC to DC controller, wherein the power scavenging device is connected in series with the electrical power source and the power consuming device; dynamically regulating a voltage drop across the input terminal pair of the power scavenging device according to the power requirement of the power consuming device, including using the input voltage regulating circuit to generate a voltage control signal; harvesting electrical energy available at the regulated voltage drop from the electric current flowing through the first input terminal pair of the power scavenging device, including temporarily storing the harvested electrical energy in the accumulation element (44, 155) and using the boost DC to DC controller to control the energy in the accumulation element (4, 155) based on the voltage control signal; and providing the harvested electrical energy at the output terminal pair of the power scavenging device. connecting a power scavenging device having an input terminal pair and an output terminal pair to the circuit via the input terminal pair, said power scavenging device further comprising an input voltage regulating circuit, an accumulation element (44, 155) and a boost DC to DC controller, wherein the power scavenging device is connected in series with the electrical power source and the power consuming device; dynamically regulating a voltage drop across the input terminal pair of the power scavenging device according to the power requirement of the power consuming device, including using the input voltage regulating circuit to generate a voltage control signal; harvesting electrical energy available at the regulated voltage drop from the electric current flowing through the first input terminal pair of the power scavenging device, including temporarily storing the harvested electrical energy in the accumulation element (44, 155) and using the boost DC to DC controller to control the energy in the accumulation element (4, 155) based on the voltage control signal; and providing the harvested electrical energy at the output terminal pair of the power scavenging device.
A substantially dimensionally stable carrying packet produced from a foldable blank, comprising - a lateral surface that has at least one edge, - a base, - a lid, the lid and the lateral surface being separable from one another at least in portions by means of a tear-off strip, ∘ the tear-off strip having a start and an end, ∘ the start of the tear-off strip being in contact with the edge, characterized in that the edge below the tear-off strip in contact with the edge is designed such that a molded reach-in portion is formed that is oriented towards the inside of the carrying packet, such that a user can reach into the molded reach-in portion and thus behind the tear-off strip using at least one finger when opening the tear-off strip for the first time. - a lateral surface that has at least one edge, - a base, - a lid, the lid and the lateral surface being separable from one another at least in portions by means of a tear-off strip, ∘ the tear-off strip having a start and an end, ∘ the start of the tear-off strip being in contact with the edge, ∘ the tear-off strip having a start and an end, ∘ the start of the tear-off strip being in contact with the edge,