mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine component comprising a cooling circuit: the gas turbine engine component (60;102) comprising a blade or a vane having a platform (64;104) connected to an airfoil section (66;106) via a curved surface that comprises a fillet region, the cooling circuit comprising: an inlet (94;110) formed on one side of the fillet region in or near one of the platform (64; 104) and airfoil section (66; 106) to receive a cooling air flow; an outlet (96;114) formed on an opposite side of the fillet region in or near the other of the platform (64; 106) and airfoil section (66; 106) to direct cooling flow along a surface of the gas turbine engine component (60; 102); and at least one cooling path formed within the gas turbine engine component (60; 102) to extend between the inlet (94;110) and the outlet (96;114) and having at least one cooling path portion that matches a curved profile of the fillet region; characterized in that: the outlet (96;114) is tangential to the curved surface; and the at least one cooling path portion defines an internal curved path surface that curves from the inlet (94;110) to the outlet (96;114). the gas turbine engine component (60;102) comprising a blade or a vane having a platform (64;104) connected to an airfoil section (66;106) via a curved surface that comprises a fillet region, the cooling circuit comprising: an inlet (94;110) formed on one side of the fillet region in or near one of the platform (64; 104) and airfoil section (66; 106) to receive a cooling air flow; an outlet (96;114) formed on an opposite side of the fillet region in or near the other of the platform (64; 106) and airfoil section (66; 106) to direct cooling flow along a surface of the gas turbine engine component (60; 102); and at least one cooling path formed within the gas turbine engine component (60; 102) to extend between the inlet (94;110) and the outlet (96;114) and having at least one cooling path portion that matches a curved profile of the fillet region; characterized in that: an inlet (94;110) formed on one side of the fillet region in or near one of the platform (64; 104) and airfoil section (66; 106) to receive a cooling air flow; an outlet (96;114) formed on an opposite side of the fillet region in or near the other of the platform (64; 106) and airfoil section (66; 106) to direct cooling flow along a surface of the gas turbine engine component (60; 102); and at least one cooling path formed within the gas turbine engine component (60; 102) to extend between the inlet (94;110) and the outlet (96;114) and having at least one cooling path portion that matches a curved profile of the fillet region; characterized in that: the outlet (96;114) is tangential to the curved surface; and the at least one cooling path portion defines an internal curved path surface that curves from the inlet (94;110) to the outlet (96;114).
A device for conveying bulk material, comprising - a movable conveying member - and a outer wall which is stationary in relation to the conveying member; - wherein - the device is connected to a further processing chamber for receiving and further processing the bulk material, and - a dynamic seal is deployed for providing a seal with respect to the pressure difference between the further processing chamber and areas situated upstream in the process, characterized in that a sealing element of the dynamic seal is made from a sealant in the form of a material pattern or material seal, which may be regenerated during the operation of the conveying device, the sealing element being provided from the partial flow of the bulk material to be conveyed or from a partial flow of the bulk material to be conveyed and a separate sealant supply. - a movable conveying member - and a outer wall which is stationary in relation to the conveying member; - wherein - the device is connected to a further processing chamber for receiving and further processing the bulk material, and - a dynamic seal is deployed for providing a seal with respect to the pressure difference between the further processing chamber and areas situated upstream in the process, characterized in that a sealing element of the dynamic seal is made from a sealant in the form of a material pattern or material seal, which may be regenerated during the operation of the conveying device, the sealing element being provided from the partial flow of the bulk material to be conveyed or from a partial flow of the bulk material to be conveyed and a separate sealant supply.
A process for producing water-absorbing polymer particles by polymerising droplets of a monomer solution comprising a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a), e) optionally one or more water-soluble polymers, and f) water, in a surrounding gas phase, the monomer solution comprising at least one surfactant. a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a), e) optionally one or more water-soluble polymers, and f) water,
A steering system comprising: a steering member provided in a vehicle and configured to be rotated; an adjustment apparatus configured to adjust a rotary direction vibration of the steering member; and a steering control apparatus (8, 208, 308, 408, 508, 608) configured to control the adjustment apparatus, in accordance with operating conditions of the vehicle, so as to adjust the rotary direction vibration, wherein the adjustment apparatus is configured to adjust a degree by which the rotary direction vibration is transmitted to the steering member, the adjustment apparatus is configured to adjust the vibration by outputting an assist steering force for supplementing a steering force input into the steering member by the driver, and the steering control apparatus (8, 208, 308, 408, 508, 608) is configured to switch between two filter characteristics of a filter used to calculate the assist steering force, in accordance with the operating conditions of the vehicle, the two filter characteristics having different degrees through which a signal corresponding to the vibration is likely to be passed. a steering member provided in a vehicle and configured to be rotated; an adjustment apparatus configured to adjust a rotary direction vibration of the steering member; and a steering control apparatus (8, 208, 308, 408, 508, 608) configured to control the adjustment apparatus, in accordance with operating conditions of the vehicle, so as to adjust the rotary direction vibration,
A method for visualizing the behavior of a flow of two or more fluid phases in a porous medium, wherein a fluid phase behavior is represented in a visualization, the method being performed by a data processing system and comprising: obtaining multiple data sets, wherein i) the data sets are generated from results of performing a simulation of the flow of the two or more fluid phases within the porous medium and ii) the data sets comprise a plurality of records, each record specifying a) coordinates of a particular location within the porous medium and b) a presence or absence of the two or more fluid phases at the particular location at a respective time; determining an occupation time, wherein the occupation time is an amount of elapsed time from i) a first time at which one of the two or more fluid phases first occupies the particular location to ii) a second time, wherein the second time is subsequent to the first time and represents a frame in the simulation of the flow of the two or more fluid phases within the porous medium; generating data for a visualization of the two or more fluid phases within the porous medium at the second time, wherein a location in the visualization corresponds to the particular location, and the generated data for the location in the visualization indicates the occupation time; rendering the visualization; and adjusting, based on the visualization, a rate or location at which a fluid phase is introduced to the porous medium, wherein the adjusting comprises sending instructions to an external device to adjust the rate or location at which the fluid phase is introduced to the porous medium. obtaining multiple data sets, wherein i) the data sets are generated from results of performing a simulation of the flow of the two or more fluid phases within the porous medium and ii) the data sets comprise a plurality of records, each record specifying a) coordinates of a particular location within the porous medium and b) a presence or absence of the two or more fluid phases at the particular location at a respective time; determining an occupation time, wherein the occupation time is an amount of elapsed time from i) a first time at which one of the two or more fluid phases first occupies the particular location to ii) a second time, wherein the second time is subsequent to the first time and represents a frame in the simulation of the flow of the two or more fluid phases within the porous medium; generating data for a visualization of the two or more fluid phases within the porous medium at the second time, wherein a location in the visualization corresponds to the particular location, and the generated data for the location in the visualization indicates the occupation time; rendering the visualization; and adjusting, based on the visualization, a rate or location at which a fluid phase is introduced to the porous medium, wherein the adjusting comprises sending instructions to an external device to adjust the rate or location at which the fluid phase is introduced to the porous medium.
A delivery system for delivery of a pharmaceutical active ingredient in mammals, the pharmaceutical active ingredient comprising a set composed of stem cells and mesoporous silica containing a releasable agent, wherein said porous silica has a surface area higher than 200 m2/g and a pore size between 1.5-50 nm, and, wherein the porous silica particles have a particle shape comprising of spheres or rod-shaped particles, wherein the releasable agent is selected from the group consisting of fibroblast growth factors (FGFs), Wnts, transforming growth factor - beta family members, Hedgehog (hh) proteins, retinoic acid, vascular endothelial growth factor (VEGF), Dickkopf (Dkk)-1, insulin, Activin, SDF-1/CXCL12), pleiotrophin, insulin-like growth factor 2, ephrin B1 (EFNB1), cAMP, Semaphorins, Slits, Netrins, NCAM, L1-CAM, NGF, BDNF, NT3, NT4/5, GDNF, Artemin, Persephin, CNTF, LIF,Oncostatin M, Cardiotrophin 1, CDNF/MANF, wherein said releasable agent is 1-60% of the total weight of the pharmaceutical active ingredient, for use in controlled delivery of the releasable agent to control stem cell differentiation after transplantation of the stem cell co-implanted with the mesoporous silica, for the treatment of Parkinson's disease or Amyotrophic lateral sclerosis or Spinal muscular atrophy or Stroke or Traumatic brain or spinal cord injury.
A vehicle-door assembly, having at least - a window pane that is adjustable by a vehicle window lifter, wherein the window pane, in a closed state, is flush with upper and/or lateral body parts that bound a window opening, to be closed by the window pane, of a vehicle door, - a door-frame support which defines a door case beneath the window opening, the window pane being lowered into said door case in order to be opened, and which has at least two lateral frame parts (RA, RB) that are located opposite one another above the door case at the window opening, - a first frame-side guide element for laterally guiding the window pane at one of the lateral frame parts (RA, RB), and a second frame-side guide element for laterally guiding the window pane at the other of the lateral frame parts (RA, RB), and - first and second pane-side guide elements (3a, 3b) via which the window pane is held in a displaceable manner on the frame-side guide elements (1, 2), characterized in that - the first and second frame-side guide elements (1, 2) each have, above the door case, an insertion region via which a respectively associated pane-side guide element (3a, 3b) is positionable from above on the respective first or second frame-side guide element (1, 2) in order to mount the window pane on the door-frame support, and - at least one closure part (4, 4*) that is to be fitted after the positioning of the pane-side first and second guide elements (3a, 3b) is provided in order to close at least one of the insertion regions of the first and second frame-side guide elements (1, 2). - a window pane that is adjustable by a vehicle window lifter, wherein the window pane, in a closed state, is flush with upper and/or lateral body parts that bound a window opening, to be closed by the window pane, of a vehicle door, - a door-frame support which defines a door case beneath the window opening, the window pane being lowered into said door case in order to be opened, and which has at least two lateral frame parts (RA, RB) that are located opposite one another above the door case at the window opening, - a first frame-side guide element for laterally guiding the window pane at one of the lateral frame parts (RA, RB), and a second frame-side guide element for laterally guiding the window pane at the other of the lateral frame parts (RA, RB), and - first and second pane-side guide elements (3a, 3b) via which the window pane is held in a displaceable manner on the frame-side guide elements (1, 2), - the first and second frame-side guide elements (1, 2) each have, above the door case, an insertion region via which a respectively associated pane-side guide element (3a, 3b) is positionable from above on the respective first or second frame-side guide element (1, 2) in order to mount the window pane on the door-frame support, and - at least one closure part (4, 4*) that is to be fitted after the positioning of the pane-side first and second guide elements (3a, 3b) is provided in order to close at least one of the insertion regions of the first and second frame-side guide elements (1, 2).
An alignment substrate for aligning liquid crystal molecules characterized in that the alignment substrate is comprising: a substrate (110, 210) and an alignment film (291, 292, 33, 34, 35, 36) formed on a surface of the substrate; the alignment film comprising polysiloxane; a first pre-tilt functional group, a second pre-tilt functional group and a first vertical alignment functional group, which are linked to the polysiloxane; wherein the first vertical alignment functional group includes a cyclic group and is aligned substantially perpendicularly to the substrate (110, 210); wherein the first pre-tilt functional group is cross-linked to the second pre-tilt functional group and tilted with respect to the substrate (110, 210). a substrate (110, 210) and an alignment film (291, 292, 33, 34, 35, 36) formed on a surface of the substrate; the alignment film comprising polysiloxane; a first pre-tilt functional group, a second pre-tilt functional group and a first vertical alignment functional group, which are linked to the polysiloxane; wherein the first vertical alignment functional group includes a cyclic group and is aligned substantially perpendicularly to the substrate (110, 210); wherein the first pre-tilt functional group is cross-linked to the second pre-tilt functional group and tilted with respect to the substrate (110, 210).
A vane ring for a gas turbine engine component, comprising: an inner vane platform around an axis; an outer vane platform around the axis; a multiple of vanes that extend between the inner vane platform and the outer vane platform, each of the multiple of vanes contains an airfoil cooling circuit that receives cooling airflow through a respective one of a multiple of feed passages; a multiple of metering passages in the outer vane platform, each of the multiple of metering passages in communication with a respective one of the multiple of feed passages; and a multiple of secondary passages in the outer vane platform, each of the multiple of secondary passages in communication with a respective one of the multiple of metering passages, characterised in that each of the multiple of secondary passages is a branch from one of the multiple of metering passages, each of the secondary passages is at an angle to the metering passage, and the metering passages and the secondary passages are circular in cross-section. an inner vane platform around an axis; an outer vane platform around the axis; a multiple of vanes that extend between the inner vane platform and the outer vane platform, each of the multiple of vanes contains an airfoil cooling circuit that receives cooling airflow through a respective one of a multiple of feed passages; a multiple of metering passages in the outer vane platform, each of the multiple of metering passages in communication with a respective one of the multiple of feed passages; and a multiple of secondary passages in the outer vane platform, each of the multiple of secondary passages in communication with a respective one of the multiple of metering passages, characterised in that each of the multiple of secondary passages is a branch from one of the multiple of metering passages, each of the secondary passages is at an angle to the metering passage, and the metering passages and the secondary passages are circular in cross-section.
A method (10, 20, 30, 40, 60, 90, 100, 110, 300) of transmitting traffic in a communications network, the method comprising: receiving a client signal having a client bit rate and comprising traffic to be transmitted (12, 42, 44); monitoring an indicator indicative of said client bit rate (14, 112, 302, 304); setting a transmission bit rate at which to transmit the received traffic, the transmission bit rate being set in dependence on said client bit rate (16, 22, 32, 46, 48, 306); and generating and transmitting a control signal arranged to cause a transmission apparatus to transmit the traffic at the transmission bit rate (18, 24, 26, 50, 52), wherein the transmission bit rate is set by determining a divide ratio for a master bit rate in dependence on said client bit rate and the control signal comprises a clock signal generated by receiving a master clock signal at the master bit rate and dividing the master clock signal by the divide ratio. receiving a client signal having a client bit rate and comprising traffic to be transmitted (12, 42, 44); monitoring an indicator indicative of said client bit rate (14, 112, 302, 304); setting a transmission bit rate at which to transmit the received traffic, the transmission bit rate being set in dependence on said client bit rate (16, 22, 32, 46, 48, 306); and generating and transmitting a control signal arranged to cause a transmission apparatus to transmit the traffic at the transmission bit rate (18, 24, 26, 50, 52), wherein the transmission bit rate is set by determining a divide ratio for a master bit rate in dependence on said client bit rate and the control signal comprises a clock signal generated by receiving a master clock signal at the master bit rate and dividing the master clock signal by the divide ratio.
A cable retraction unit assembly comprising: a cable connected to a mobile device; a guide housing mounted to an upper portion of a main hole provided in a tabletop, with the cable penetrating through the guide housing; a guide unit provided within the guide housing for passing the cable therethrough, the guide unit being configured to rotate in response to a rotating direction of the cable; and a withdrawal unit provided at a lower portion of the main hole, the withdrawal unit including a withdrawal guide for inducing retracting and extending of the cable and a recoiler connected to the withdrawal guide so as to wind the cable, characterised in that at least one of the guide unit and the withdrawal guide is provided with a roller (A355, A417) that rotates in response to retracting and extending of the cable, in that the guide unit includes a locking unit and a rotor provided within the locking unit, and in that the roller comprises a plurality of first rollers provided around a connection hole that is provided in the rotor. a cable connected to a mobile device; a guide housing mounted to an upper portion of a main hole provided in a tabletop, with the cable penetrating through the guide housing; a guide unit provided within the guide housing for passing the cable therethrough, the guide unit being configured to rotate in response to a rotating direction of the cable; and a withdrawal unit provided at a lower portion of the main hole, the withdrawal unit including a withdrawal guide for inducing retracting and extending of the cable and a recoiler connected to the withdrawal guide so as to wind the cable, characterised in that at least one of the guide unit and the withdrawal guide is provided with a roller (A355, A417) that rotates in response to retracting and extending of the cable, in that the guide unit includes a locking unit and a rotor provided within the locking unit, and in that the roller comprises a plurality of first rollers provided around a connection hole that is provided in the rotor.
Method for damping an edgewise vibration of a rotor blade of a wind turbine, the method comprising: - Measuring at the rotor blade a motion parameter of the edgewise rotor blade vibration, wherein said motion parameter enables determining an edgewise rotor blade vibration velocity, - generating based on said motion parameter a blade pitch angle control signal, - damping the edgewise vibration of the rotor blade by pitching the rotor blade according to the blade pitch angle control signal, wherein the blade pitch angle control signal is arranged so that a resulting force on a rotor blade pitched according to the blade pitch angle control signal, in a direction of the edgewise vibration of the rotor blade in a coordinate system, which rotates with a rotor of the wind turbine, is opposite and proportional to the edgewise rotor blade vibration velocity, characterized in that the motion parameter is a measured edgewise blade root bending moment and wherein the edgewise rotor blade vibration velocity is an estimated blade velocity, the estimated blade velocity being obtained from the measured edgewise blade root bending moment filtered by a frequency filter to isolate a signal around the first edgewise vibration frequency, the frequency filtered signal being input into a velocity estimation filter to obtain the estimated blade velocity. - Measuring at the rotor blade a motion parameter of the edgewise rotor blade vibration, wherein said motion parameter enables determining an edgewise rotor blade vibration velocity, - generating based on said motion parameter a blade pitch angle control signal, - damping the edgewise vibration of the rotor blade by pitching the rotor blade according to the blade pitch angle control signal,
Galvanic cell comprising an electric unit, a first frame part and a second frame part, wherein the electric unit is clamped between the first frame part and the second frame part in the region of clamping surfaces, characterised in that the electric unit and the first frame part have matching shape features (30, 32, 36, 42, 44, 46, 62a, 62b, 64), which engage with one another in such a way that a position of the electric unit relative to the first frame part is at least substantially fixed at least in a state in which the clamping connection of the frame parts (8, 10) and the electric unit is released, in that the shape features (30, 32, 44, 62a, 62b) of the electric unit are formed in an electrically inactive edge region of the electric unit, and in that the electric unit comprises an electrochemically active part, which defines a substantially rectangular basic shape, is formed from a foil stack or a foil reel and is tightly enclosed by a foil-type insulating covering (50, 52), the covering (50, 52) forming the edge region.