mhurhangee/patent-ind-claim-en huggingface dataset:
A flow directing assembly for use in a turbine engine comprising: a plurality of circumferentially spaced blades , each of the blades including a radial projecting airfoil with a concave pressure side and a convex suction side that extend from a platform ; and a plurality of flow passages , each flow passage defined by the airfoils of neighboring blades and an inner wall formed by abutting platforms of neighboring blades , the inner wall forming an inner radial boundary of the flow passage ; wherein the inner wall of one or more of the flow passages comprises means for reducing frictional losses between a flow of working fluid through the turbine engine and the inner wall ; wherein the means for reducing frictional losses comprises a non-axisymmetrical trough positioned between neighboring airfoils ; wherein each of the troughs is circumferentially positioned between the airfoils of neighboring blades ; wherein each of the troughs extends from an area between the leading edges of the airfoils to an area between the trailing edges of the airfoils ; characterized in that the flow directing assembly further comprises leading edge ridges , wherein each of the leading edge ridges comprises an elongated raised area that resides approximately between the pressure side of the airfoil and the leading edge portions of each of the troughs . a plurality of circumferentially spaced blades , each of the blades including a radial projecting airfoil with a concave pressure side and a convex suction side that extend from a platform ; and a plurality of flow passages , each flow passage defined by the airfoils of neighboring blades and an inner wall formed by abutting platforms of neighboring blades , the inner wall forming an inner radial boundary of the flow passage ; wherein the inner wall of one or more of the flow passages comprises means for reducing frictional losses between a flow of working fluid through the turbine engine and the inner wall ; wherein the means for reducing frictional losses comprises a non-axisymmetrical trough positioned between neighboring airfoils ; wherein each of the troughs is circumferentially positioned between the airfoils of neighboring blades ; wherein each of the troughs extends from an area between the leading edges of the airfoils to an area between the trailing edges of the airfoils ; characterized in that the flow directing assembly further comprises leading edge ridges , wherein each of the leading edge ridges comprises an elongated raised area that resides approximately between the pressure side of the airfoil and the leading edge portions of each of the troughs .
A method of capturing chemical species from a fluid composition, the method comprising: contacting a first metal organic framework characterized by the formula NiNbF 5 O(pyrazine) 2 (solvent) x , NiFeF 5 (H 2 O)(pyrazine) 2 (solvent) x , or NiAlF 5 (H 2 O)(pyrazine) 2 (solvent) x with a fluid composition including at least carbon dioxide and hydrogen sulfide; and capturing carbon dioxide and hydrogen sulfide from the fluid composition. contacting a first metal organic framework characterized by the formula NiNbF 5 O(pyrazine) 2 (solvent) x , NiFeF 5 (H 2 O)(pyrazine) 2 (solvent) x , or NiAlF 5 (H 2 O)(pyrazine) 2 (solvent) x with a fluid composition including at least carbon dioxide and hydrogen sulfide; and capturing carbon dioxide and hydrogen sulfide from the fluid composition.
A method for the production of a seat cover for a vehicle seat formed from a three dimensional knitted part, wherein the three dimensional knitted part has endless fibers and reinforcing fibers and the reinforcing fibers are each formed having a core fiber and a sheath fiber coaxially enclosing the core fiber, wherein the three dimensional knitted part is first produced by means of a knitting machine and then the seat cover is produced from the three dimensional knitted part by means of an ironing machine, wherein the ironing machine has at least one lower mold shaped as a vehicle seat, and wherein the core fiber has a higher melting point than the sheath fiber, comprising the following steps: a. knitting the three dimensional knitted part in a shape of the seat cover to be produced by means of the knitting machine from the endless fibers and the reinforcing fibers, b. stretching the three dimensional knitted part having the shape of the seat cover onto the lower mold of the ironing machine, c. heating the three dimensional knitted part by means of the ironing machine to produce the seat cover, wherein a temperature applied to the three dimensional knitted part is above the melting point of the sheath fiber and below the melting point of the core fiber. a. knitting the three dimensional knitted part in a shape of the seat cover to be produced by means of the knitting machine from the endless fibers and the reinforcing fibers, b. stretching the three dimensional knitted part having the shape of the seat cover onto the lower mold of the ironing machine, c. heating the three dimensional knitted part by means of the ironing machine to produce the seat cover, wherein a temperature applied to the three dimensional knitted part is above the melting point of the sheath fiber and below the melting point of the core fiber.
A fabric arrangement with a fabric and a foamable and/or foamed functional layer which is firmly applied to a first side of the fabric , wherein - the functional layer has a first layer , wherein - the first layer of the functional layer has a first printing mixture with a foam, wherein - the foam has a binder and a plurality of plastic spheres bound in the binder which are filled with a gas, characterised in that - the first printing mixture comprises a flexibility additive increasing an elasticity of the functional layer , which comprises an acrylic acid ester copolymer, - wherein the flexibility additive is admixed with a mass proportion of at least 7% to at most 15% of the first printing mixture. - the functional layer has a first layer , wherein - the first layer of the functional layer has a first printing mixture with a foam, wherein - the foam has a binder and a plurality of plastic spheres bound in the binder which are filled with a gas, characterised in that - the first printing mixture comprises a flexibility additive increasing an elasticity of the functional layer , which comprises an acrylic acid ester copolymer, - wherein the flexibility additive is admixed with a mass proportion of at least 7% to at most 15% of the first printing mixture.
A method of delimbing a tree trunk , comprising a set of limbing knives , including a compliant limbing knife spring loaded against the trunk, adapted to enclose the trunk and defining a compliant tree trunk gripping state, , said method comprising repeated adjustment of the limbing knives, by means of actuators , through a control unit for adaption of the gripping state to a varying thickness of the trunk when the trunk is advanced between the knives for the delimbing of the trunk, setting, by means of an input unit , a desired compliance (D1) of the gripping state in the control unit , wherein the compliance comprises a remaining free stroke of travel of the compliant limbing knife spring loaded against the trunk, detecting, by a sensor , an actual compliance (d) of the gripping state and signaling the actual compliance to the control unit , and wherein on each repeated adjustment of the limbing knives, actuators are controlled , by means of the control unit, until the actual compliance (d) corresponds to the desired compliance (D1).
A welding tool for pulse welding a film of plastic of a, preferably medical, package , comprising a welding jaw with a sealing strip which extends along the welding jaw and can be pressed onto the film , wherein the sealing strip comprises a heatable sealing surface to form a weld seam in order to plasticize plastic material of the film adjoining the sealing surface , and on the edge in relation to the sealing surface has an adjoining, inner clamping region and an adjoining, outer clamping region for clamping the film while the film is welded, wherein the sealing surface has an elevation for displacing plasticized plastic material of the film , characterized in that the elevation is provided by a plateau which protrudes from a top surface of the sealing surface . a welding jaw with a sealing strip which extends along the welding jaw and can be pressed onto the film , wherein the sealing strip comprises a heatable sealing surface to form a weld seam in order to plasticize plastic material of the film adjoining the sealing surface , and on the edge in relation to the sealing surface has an adjoining, inner clamping region and an adjoining, outer clamping region for clamping the film while the film is welded, wherein the sealing surface has an elevation for displacing plasticized plastic material of the film , characterized in that the elevation is provided by a plateau which protrudes from a top surface of the sealing surface .
Method for controlling a wind turbine during gaps in an electrical network voltage, applied to generators connected to the electrical network of the asynchronous type with wound rotor and a stator , having at least one power unit with at least one first electronic converter connected to the rotor of the generator , at least one second electronic converter capable of supplying or dissipating the power which said rotor of the generator is using or producing, and at least one continuous bus , and at least a load capable of being connected to the stator , and comprising the stator disconnection from the electrical network and its connection to the load during gaps in the electrical network voltage; characterized in that, during the stator disconnection of the generator from the electrical network and its connection to the load , it comprises varying the frequency of the currents in the rotor generated by the first electronic converter connected to the rotor of the generator in order to control the power flow between the rotor of the generator and the first electronic converter .
A portable fitness monitoring system comprising: a portable fitness monitoring device having an audio output for communicating audio performance feedback to a user; characterized by an input port adapted to communicate music data from a music device to the portable audio output through said portable fitness monitoring device , wherein the audio performance feedback is generated by a voice synthesizer; and wherein when music output by the portable audio output is modified by the audio performance feedback, the volume of the audio performance feedback is set based on the volume of the music just prior to the modification. a portable fitness monitoring device having an audio output for communicating audio performance feedback to a user; characterized by an input port adapted to communicate music data from a music device to the portable audio output through said portable fitness monitoring device , wherein the audio performance feedback is generated by a voice synthesizer; and wherein when music output by the portable audio output is modified by the audio performance feedback, the volume of the audio performance feedback is set based on the volume of the music just prior to the modification.
Scaffolding frame with - a first scaffolding tube - a second scaffolding tube arranged parallel to and distanced from the first scaffolding tube - a first cross strut which is arranged between the first scaffolding tube and the second scaffolding tube perpendicular to the scaffolding tubes , wherein a second cross strut is arranged and fixed with a first end to the first scaffolding tube and with a second end to the first cross strut , wherein a first acute angle is formed between the second cross strut and the first scaffolding tube , and a third cross strut is arranged and fixed with a third end to the second scaffolding tube and with a fourth end to the second cross strut , wherein a second acute angle is formed between the third cross strut and the second scaffolding tube , wherein the second and fourth ends of the cross struts are arranged in the plane of the scaffolding frame and within the scaffolding frame the second end of the second cross strut has at a first distance from the second scaffolding tube and the fourth end of the third cross strut has at a second distance from the first scaffolding tube , characterized in that a fourth acute angle and as a supplementary angle to this fourth acute angle, a fifth obtuse angle are formed between the third cross strut and the second cross strut . - a first scaffolding tube - a second scaffolding tube arranged parallel to and distanced from the first scaffolding tube - a first cross strut which is arranged between the first scaffolding tube and the second scaffolding tube perpendicular to the scaffolding tubes , wherein a second cross strut is arranged and fixed with a first end to the first scaffolding tube and with a second end to the first cross strut , wherein a first acute angle is formed between the second cross strut and the first scaffolding tube , and a third cross strut is arranged and fixed with a third end to the second scaffolding tube and with a fourth end to the second cross strut , wherein a second acute angle is formed between the third cross strut and the second scaffolding tube , wherein the second and fourth ends of the cross struts are arranged in the plane of the scaffolding frame and within the scaffolding frame the second end of the second cross strut has at a first distance from the second scaffolding tube and the fourth end of the third cross strut has at a second distance from the first scaffolding tube , characterized in that a fourth acute angle and as a supplementary angle to this fourth acute angle, a fifth obtuse angle are formed between the third cross strut and the second cross strut .
A stable pharmaceutical formulation for oral administration comprising from 0.1 to 50 % w/w of a cannabinoid; from 0.1 to 40 % w/w of a polyethylene glycol; from 0.1 to 50 % w/w of propylene glycol; and optionally from 0.1 to 20 % w/w of water, wherein the formulation does not contain alcohol and the formulation has a pH of from 5 to 8. from 0.1 to 50 % w/w of a cannabinoid; from 0.1 to 40 % w/w of a polyethylene glycol; from 0.1 to 50 % w/w of propylene glycol; and optionally from 0.1 to 20 % w/w of water, wherein the formulation does not contain alcohol and the formulation has a pH of from 5 to 8.
A device (100; 500) for insertion into a floor, comprising a shock-absorbing base body and a recess , the base body surrounding the recess , the base body having a larger circumference on an upper side than on a lower side, characterized in that the base body can be unfolded at a folding point, so that the recess is partially surrounded by the base body in the unfolded state and completely surrounded by the base body in the folded state.
A composition comprising a cholera toxin B subunit variant comprising an endoplasmic reticulum (ER) retention signal, for use in treating colon cancer.
Venetian blind for building openings, comprising an upper rail , two upper-rail mounts , slats , an end rail , two end-rail mounts , two guides and, at each guide , comprising a drive device for moving the upper rail or the end rail and for adjusting the inclination of the upper rail and accordingly at least one of the slats , the guides and the drive devices extending, when installed, over a height range at the longitudinal ends of the upper rail and the end rail that face away from one another, and the drive devices each comprising drive elements that run around a top and a bottom deflection device and each comprise two support elements , which support elements make the upper-rail mounts having the upper rail arranged therebetween displaceable between a top and a bottom upper-rail end position or make the end-rail mounts having the end rail arranged therebetween displaceable along the guides between a top and a bottom end-rail end position, the end rail being in the bottom end-rail end position when the upper rail is moved and the upper rail being in the top upper-rail end position when the end rail is moved, the upper-rail mounts comprising inclination-adjusting devices which make the inclination of the upper rail adjustable in positions of the upper rail in which it is spaced apart from the top upper-rail end position and when the drive devices are causing a movement, characterized in that the inclination-adjusting devices comprise clamping devices , which can be clamped to the guides for adjusting the inclination of the upper rail and can be displaced along the guides for moving the upper rail .
A driving control apparatus for a hybrid vehicle with an engine and a motor in a drive system, and with a control system for controlling braking/driving force of the engine and the motor , and adapted to selectively perform: an engine driving mode in which the hybrid vehicle drives with only driving force of the engine ; an EV driving mode in which the hybrid vehicle drives with only driving force of the motor ; and an HEV driving mode in which the hybrid vehicle drives with the driving force of the engine and the driving force of the motor , the driving control apparatus having an ACC function that performs a constant speed cruise in accordance with a target vehicle speed when another vehicle ahead is not present in the vehicle's cruising lane and performs a following cruise with keeping a predetermined inter-vehicle time when the vehicle ahead is present; wherein the driving control apparatus is configured, in a case in which the vehicle ahead being followed by the ACC function accelerates, to execute acceleration control according to a first torque demand (T1) determined by an acceleration rate of the vehicle ahead in the engine driving mode or the HEV driving mode, and to execute acceleration control according to a second torque demand (T2) determined by the acceleration rate of the vehicle ahead in the EV driving mode, and the second torque demand (T2) increases with a greater inclination than the first torque demand (T1). an engine driving mode in which the hybrid vehicle drives with only driving force of the engine ; an EV driving mode in which the hybrid vehicle drives with only driving force of the motor ; and an HEV driving mode in which the hybrid vehicle drives with the driving force of the engine and the driving force of the motor , the driving control apparatus having an ACC function that performs a constant speed cruise in accordance with a target vehicle speed when another vehicle ahead is not present in the vehicle's cruising lane and performs a following cruise with keeping a predetermined inter-vehicle time when the vehicle ahead is present; wherein the driving control apparatus is configured, in a case in which the vehicle ahead being followed by the ACC function accelerates, to execute acceleration control according to a first torque demand (T1) determined by an acceleration rate of the vehicle ahead in the engine driving mode or the HEV driving mode, and to execute acceleration control according to a second torque demand (T2) determined by the acceleration rate of the vehicle ahead in the EV driving mode, and the second torque demand (T2) increases with a greater inclination than the first torque demand (T1).
A method for securely resolving product identity, comprising: establishing a wireless connection between an audio device and a remote device ; receiving , at the remote device, an identity resolving key , IRK, associated with the audio device, in an encrypted state from the audio device via the wireless connection; establishing a data connection between the remote device and a server ; transmitting credentials of a user of the remote device to the server via the data connection to authorize the remote device to act as a relay between the audio device and the server; transmitting the IRK in the encrypted state from the remote device to the server via the data connection; receiving the IRK in a decrypted state from the server via an encrypted link of the data connection; receiving an advertising packet broadcast from the audio device by the remote device, the advertising packet including a random resolvable address for the audio device; and attempting to resolve, at the remote device, the random resolvable address using the IRK in the decrypted state to identify the audio device. establishing a wireless connection between an audio device and a remote device ; receiving , at the remote device, an identity resolving key , IRK, associated with the audio device, in an encrypted state from the audio device via the wireless connection; establishing a data connection between the remote device and a server ; transmitting credentials of a user of the remote device to the server via the data connection to authorize the remote device to act as a relay between the audio device and the server; transmitting the IRK in the encrypted state from the remote device to the server via the data connection; receiving the IRK in a decrypted state from the server via an encrypted link of the data connection; receiving an advertising packet broadcast from the audio device by the remote device, the advertising packet including a random resolvable address for the audio device; and attempting to resolve, at the remote device, the random resolvable address using the IRK in the decrypted state to identify the audio device.
A simulation system comprising: a processor configured to generate a virtual representation of a physical interaction with a material based on modeled deformation characteristics of the material and data representative of the physical interaction; and a touchscreen adapted to (i) display the virtual representation of the material, (ii) receive as input from a user the data representative of the physical interaction, wherein the user inputs the data representative of the physical interaction by interacting with the displayed virtual representation of the material, and (iii) display, in real-time, the virtual representation of the physical interaction with the material, characterized by comprising a sensor configured for detecting a user's perspective angle relative to the touchscreen . a processor configured to generate a virtual representation of a physical interaction with a material based on modeled deformation characteristics of the material and data representative of the physical interaction; and a touchscreen adapted to (i) display the virtual representation of the material, (ii) receive as input from a user the data representative of the physical interaction, wherein the user inputs the data representative of the physical interaction by interacting with the displayed virtual representation of the material, and (iii) display, in real-time, the virtual representation of the physical interaction with the material, characterized by comprising a sensor configured for detecting a user's perspective angle relative to the touchscreen .