mhurhangee/ep-ind-claims huggingface dataset:
A headgear for a patient interface comprising: at least one headgear member or headgear members, wherein the headgear member or headgear members comprise a resilient headband, and a pair of flexible joints (13, 34) adapted to connect a said headgear member or headgear members to the patient interface and/or a pair of flexible joints (13,34) connecting a said headgear member to adjacent headgear members, each flexible joint (13,34) allowing free relative movement between the headgear member or members and the patient interface or between the headgear member and adjacent headgear members with at least two degrees of freedom, wherein the flexible joint (13,34) is a member formed from a soft flexible material, wherein the resilient headband is shaped to fit a user's head with each end of the headband located to and biased against a respective side of the user's head, and wherein the resilient headband is configured such that in an un-deflected condition the distance between the ends of the resilient headband is less than a width of a user's head so that, in use, deflection of the resilient headband to fit the user's head biases the ends of the resilient headband against sides of the user's head. at least one headgear member or headgear members, wherein the headgear member or headgear members comprise a resilient headband, and a pair of flexible joints (13, 34) adapted to connect a said headgear member or headgear members to the patient interface and/or a pair of flexible joints (13,34) connecting a said headgear member to adjacent headgear members, each flexible joint (13,34) allowing free relative movement between the headgear member or members and the patient interface or between the headgear member and adjacent headgear members with at least two degrees of freedom, wherein the flexible joint (13,34) is a member formed from a soft flexible material, wherein the resilient headband is shaped to fit a user's head with each end of the headband located to and biased against a respective side of the user's head, and wherein the resilient headband is configured such that in an un-deflected condition the distance between the ends of the resilient headband is less than a width of a user's head so that, in use, deflection of the resilient headband to fit the user's head biases the ends of the resilient headband against sides of the user's head.
A device for treating vascular dysfunction through neuromuscular stimulation and flow-mediated endothelial mechanotransduction, the device comprising: a controller configured for generation of electrical waveforms; a plurality of treatment pads and a plurality of leads, wherein the controller is associated to the plurality of treatment pads and the leads are in electrical communication with the controller; wherein the plurality of treatment pads and leads are configured to be coupled to both the upper and lower extremities of a human body; wherein the controller is configured to initiate an electrical stimulation signal through the leads and into the tissue of the body, the controller regulating the electrical stimulation signal; and wherein the electrical stimulation signal is configured to contract skeletal muscle on the body to induce endothelium mechanotransduction in a blood vessel, the endothelium mechanotransduction resulting from induced frictional drag between blood cells and an endothelial layer of the blood vessel, the endothelium mechanotransduction activating both paracrine and autocrine processes; characterized in that the controller is configured to regulate the electrical stimulation signal through the plurality of treatment pads and leads in a sequential manner with overlapping intervals of contractions from a distal end to a proximal end of each extremity. a controller configured for generation of electrical waveforms; a plurality of treatment pads and a plurality of leads, wherein the controller is associated to the plurality of treatment pads and the leads are in electrical communication with the controller; wherein the plurality of treatment pads and leads are configured to be coupled to both the upper and lower extremities of a human body; wherein the controller is configured to initiate an electrical stimulation signal through the leads and into the tissue of the body, the controller regulating the electrical stimulation signal; and wherein the electrical stimulation signal is configured to contract skeletal muscle on the body to induce endothelium mechanotransduction in a blood vessel, the endothelium mechanotransduction resulting from induced frictional drag between blood cells and an endothelial layer of the blood vessel, the endothelium mechanotransduction activating both paracrine and autocrine processes; characterized in that the controller is configured to regulate the electrical stimulation signal through the plurality of treatment pads and leads in a sequential manner with overlapping intervals of contractions from a distal end to a proximal end of each extremity.
A partially separated fiber bundle comprising separation-processed sections, each divided into a plurality of bundles of at least three bundles, and not-separation-processed sections, that are alternately formed along the lengthwise direction of a fiber bundle comprising a plurality of single fibers, characterized in that, at any width-direction cross-section taken along the lengthwise direction of the partially separated fiber bundle, a rate of single fibers contained in a region at which adjacent divided fiber bundles are joined by a not-separation-processed part is 67% or less relative to the total single fibers in the width-direction cross-section.
Power accumulator having an elongated shape and at least one positive and at least one negative contact (5, 7) whereby the contacts (5, 7) are arranged symmetrically with respect to the external shape of the power accumulator, characterized in that the positive and negative contacts (5, 7) are arranged symmetrically with respect to a longitudinal center plane of the power accumulator as plane of symmetry and that at least one contact is arranged in region of the plane of symmetry and two further contacts are arranged with a distance from the plane of symmetry.
A vehicle network in a vehicle, which is couplable to a further vehicle (no) to form a vehicle combination, wherein there is a solid connection (40, 140, 640) between the vehicle and said further vehicle, the vehicle network comprising an inter-vehicle transceiver configured to communicate with a corresponding inter-vehicle transceiver of a vehicle network in said further vehicle (no) including generating a radio beam connecting the two transceivers (21, 121), the inter-vehicle transceiver further configured to perform beam adaptation of the radio beam guided by: a) radio measurements aiming to localize the corresponding inter-vehicle transceiver, or b) an articulation angle ( φ, θ) of the vehicle combination. the vehicle network comprising an inter-vehicle transceiver configured to communicate with a corresponding inter-vehicle transceiver of a vehicle network in said further vehicle (no) including generating a radio beam connecting the two transceivers (21, 121), the inter-vehicle transceiver further configured to perform beam adaptation of the radio beam guided by: a) radio measurements aiming to localize the corresponding inter-vehicle transceiver, or b) an articulation angle ( φ, θ) of the vehicle combination. a) radio measurements aiming to localize the corresponding inter-vehicle transceiver, or b) an articulation angle ( φ, θ) of the vehicle combination.
Work machine, in particular a construction machine, comprising - a mast having a mast head, - a support cable which is guided along the mast, over the mast head, - a cable winch comprising a rotatably mounted winding drum to which the support cable is attached for winding up and unwinding, - a work element which is arranged on the support cable for vertical movement, and - a control unit, by means of which the cable winch can be operated in an unwinding mode, for unwinding the support cable from the winding drum, in which the work element is lowered, on the support cable, as far as a base surface, - wherein a cable contact pressure means with at least one contact pressure element is provided, characterized in that the contact pressure element can be adjusted into a contact pressure position by the control unit, by means of an actuating member, in order to counteract a cable oscillation of the support cable when the base surface is struck, in which contact pressure position the contact pressure element rests on the support cable at a contact pressure force. - a mast having a mast head, - a support cable which is guided along the mast, over the mast head, - a cable winch comprising a rotatably mounted winding drum to which the support cable is attached for winding up and unwinding, - a work element which is arranged on the support cable for vertical movement, and - a control unit, by means of which the cable winch can be operated in an unwinding mode, for unwinding the support cable from the winding drum, in which the work element is lowered, on the support cable, as far as a base surface, - wherein a cable contact pressure means with at least one contact pressure element is provided,
A control device for controlling an automated system, the control device comprising: a first control module; a second control module; and a communication channel via which the first control module and the second control module exchange process data of the automated system; wherein the first control module is configured to generate process data at a first time t 1, send the process data to the second control module via the communication channel, receive a response to the process data from the second control module, and process the process data at a fourth time t 4, wherein the second control module is configured to receive the process data from the first control module, process the process data at a second time t 2, generate the response at a third time t 3, and send the response to the first control module, wherein the times t 1, t 2, t 3, and t 4 are in chronological order, wherein the first control module and the second control module are configured to ensure that, when communicating with each other, certain minimum durations between selected events are guaranteed in order to ensure a predetermined minimum time interval between two events, wherein the first control module and the second control module are configured to guarantee jointly a first defined minimum duration Δ1 between the first time t 1 and the second time t 2, and/or a third defined minimum duration Δ3 between the third time t 3 and the fourth time t 4, and/or wherein the second control module is configured to guarantee a second defined minimum duration Δ2 between the second time t 2 and the third time t 3. a first control module; a second control module; and a communication channel via which the first control module and the second control module exchange process data of the automated system; wherein the first control module is configured to generate process data at a first time t 1, send the process data to the second control module via the communication channel, receive a response to the process data from the second control module, and process the process data at a fourth time t 4, wherein the second control module is configured to receive the process data from the first control module, process the process data at a second time t 2, generate the response at a third time t 3, and send the response to the first control module, wherein the times t 1, t 2, t 3, and t 4 are in chronological order, wherein the first control module and the second control module are configured to ensure that, when communicating with each other, certain minimum durations between selected events are guaranteed in order to ensure a predetermined minimum time interval between two events, wherein the first control module and the second control module are configured to guarantee jointly a first defined minimum duration Δ1 between the first time t 1 and the second time t 2, and/or a third defined minimum duration Δ3 between the third time t 3 and the fourth time t 4, and/or wherein the second control module is configured to guarantee a second defined minimum duration Δ2 between the second time t 2 and the third time t 3.
Undervoltage release circuit comprising a solenoid, a spring, a voltage determining device and a switching element, the voltage determining device comprising means for measuring the control-voltage and means for generating a signal according to the control voltage measured, the solenoid acting against the spring and being connected to a trip-latch which trips a circuit-breaker as soon as a control voltage drops under a voltage level, characterized in that the switching element is controlled by a command signal, the switching element being connected in series with the solenoid, the signal according to the control voltage measured constituting the command signal so that the switching element is closed when the control voltage measured is equal or higher than the voltage level and opened as soon as the control voltage is less than the voltage level.
A gas turbine engine comprising: an engine static structure having a fluid port; a turbine vane supported relative to the engine static structure and including a cooling passage; and a flow splitter provided between the engine static structure and the turbine vane, the flow splitter configured to divide a flow upstream from the flow splitter into a first fluid flow provided to the fluid port and a second fluid flow provided to the cooling passage and characterized by comprising a locating feature between the flow splitter and the engine static structure configured to circumferentially affix the flow splitter to the engine static structure; and wherein the engine static structure includes one of a fork and a tab (106, 108), and the flow splitter includes the other of the fork and the tab (106, 108), the tab received in the fork and comprising the locating feature. an engine static structure having a fluid port; a turbine vane supported relative to the engine static structure and including a cooling passage; and a flow splitter provided between the engine static structure and the turbine vane, the flow splitter configured to divide a flow upstream from the flow splitter into a first fluid flow provided to the fluid port and a second fluid flow provided to the cooling passage and characterized by comprising a locating feature between the flow splitter and the engine static structure configured to circumferentially affix the flow splitter to the engine static structure; and wherein the engine static structure includes one of a fork and a tab (106, 108), and the flow splitter includes the other of the fork and the tab (106, 108), the tab received in the fork and comprising the locating feature.
An indirect transfer medium comprising: a base material; and an image receiving layer on which an image is capable of being formed by ink-jet printing, the image receiving layer including a vinyl acetate maleate copolymer as thermo-adhesive material, the image receiving layer being laminated on the base material wherein, the image receiving layer is compounded at 10% to 40% by weight of the vinyl acetate maleate copolymer, 5% to 10% by weight of a cationic vinyl compound, and 55% to 80% by weight of a modified polyester. a base material; and an image receiving layer on which an image is capable of being formed by ink-jet printing, the image receiving layer including a vinyl acetate maleate copolymer as thermo-adhesive material, the image receiving layer being laminated on the base material wherein, the image receiving layer is compounded at 10% to 40% by weight of the vinyl acetate maleate copolymer, 5% to 10% by weight of a cationic vinyl compound, and 55% to 80% by weight of a modified polyester.
A method for purifying a waste solvent, the method comprising: decompressing a waste solvent; introducing the decompressed waste solvent into a distillation column; and distilling the introduced waste solvent, wherein the distillation is performed by a multi-stage distillation method; wherein the waste solvent contains a solvent, water, ammonia, and carbon dioxide, wherein the solvent is a monohydric alcohol, a polyhydric alcohol, or a mixture of two or more thereof; wherein the decompression is performed at a temperature of 30-50°C and a pressure of 100-200 mbar. decompressing a waste solvent; introducing the decompressed waste solvent into a distillation column; and distilling the introduced waste solvent, wherein the distillation is performed by a multi-stage distillation method; wherein the waste solvent contains a solvent, water, ammonia, and carbon dioxide, wherein the solvent is a monohydric alcohol, a polyhydric alcohol, or a mixture of two or more thereof; wherein the decompression is performed at a temperature of 30-50°C and a pressure of 100-200 mbar.
A transient receptor potential M8 cation channel activating agent selected from the group consisting of: (i) icilin (1-(2'-hydroxyphenyl)-4-(3"-nitrophenyl)-1,2,3,6-tetrahydropyrimidin-2-one); and (ii) menthol 1R,2S,5R-(5-methyl-2-[1-methylethyl] cyclohexanol); (iii) icilin comprising a modification at the 2' position to include a member selected from the groups consisting of (i) C 1 -C 4 alkyloxy; (ii) NO 2; (iii) =O; and (iv) NH 2; (iv) methoxyicilin; for use in inducing analgesia in a patient suffering from or experiencing chronic neuropathic pain. (i) icilin (1-(2'-hydroxyphenyl)-4-(3"-nitrophenyl)-1,2,3,6-tetrahydropyrimidin-2-one); and (ii) menthol 1R,2S,5R-(5-methyl-2-[1-methylethyl] cyclohexanol); (iii) icilin comprising a modification at the 2' position to include a member selected from the groups consisting of (i) C 1 -C 4 alkyloxy; (ii) NO 2; (iii) =O; and (iv) NH 2; (i) C 1 -C 4 alkyloxy; (ii) NO 2; (iii) =O; and (iv) NH 2; (iv) methoxyicilin;
Composition for subcutaneous or intradermal injection consisting of: hyaluronic acid or one of its salts as a filling agent, hyaluronic acid being non crosslinked; and a fibroblast growth medium free of any cell growth factor or any biological extract of animal or cellular origin, which has not been traced and/or is of undetermined composition, said fibroblast growth medium comprising: - components of nucleic acids, - amino acids, - simple and complex sugars, - vitamins, - and an inorganic fraction containing trace elements and mineral salts. hyaluronic acid or one of its salts as a filling agent, hyaluronic acid being non crosslinked; and a fibroblast growth medium free of any cell growth factor or any biological extract of animal or cellular origin, which has not been traced and/or is of undetermined composition, said fibroblast growth medium comprising: - components of nucleic acids, - amino acids, - simple and complex sugars, - vitamins, - and an inorganic fraction containing trace elements and mineral salts. - components of nucleic acids, - amino acids, - simple and complex sugars, - vitamins, - and an inorganic fraction containing trace elements and mineral salts.
A Transmission Control Protocol, TCP, packet processing method, comprising: obtaining, by a TCP offload engine, TOE, component, a first storage address, wherein the first storage address is an address of a first storage block in a memory, the first storage block stores a target TCP packet, and the target TCP packet comprises a packet header and a TCP payload; obtaining, by the TOE component, the packet header from the first storage block based on the first storage address; and performing, by the TOE component, TCP-related protocol processing based on the packet header, wherein the TCP payload is not read out of the first storage block by the TOE component when the TOE component performs TCP-related protocol processing based on the packet header, and the TOE component sends a second storage address to a central processing unit, CPU, wherein the second storage address indicates a TCP payload that can be processed by the CPU; and the CPU receives the second storage address, and sends the second storage address to an application program. obtaining, by a TCP offload engine, TOE, component, a first storage address, wherein the first storage address is an address of a first storage block in a memory, the first storage block stores a target TCP packet, and the target TCP packet comprises a packet header and a TCP payload; obtaining, by the TOE component, the packet header from the first storage block based on the first storage address; and performing, by the TOE component, TCP-related protocol processing based on the packet header, wherein the TCP payload is not read out of the first storage block by the TOE component when the TOE component performs TCP-related protocol processing based on the packet header, and the TOE component sends a second storage address to a central processing unit, CPU, wherein the second storage address indicates a TCP payload that can be processed by the CPU; and the CPU receives the second storage address, and sends the second storage address to an application program.
Vehicle capable of flying in air, comprising: - a body having a tail section; - a main rotor having a rotation axis on top of the body; - at least one central thrust unit arranged along the longitudinal axis of the vehicle, at a distance from the rotation axis of the main rotor; - at least one mounting support on either side of the body; - at least one side thrust unit mounted to each mounting support; wherein the at least one central thrust unit comprises a fan which provides air flow with at least a flow component perpendicular to a virtual vertical midplane of the vehicle; wherein each of said side thrust units comprises a fan which provides air flow with at least a flow component parallel to said virtual vertical midplane; wherein at least one of said side thrust units is provided with controllable air deflection means to deflect a the corresponding output air flow in a controllable manner; characterized in that at least one of the at least one central thrust units is provided with controllable air deflection means to deflect a corresponding output air flow in a controllable manner. - a body having a tail section; - a main rotor having a rotation axis on top of the body; - at least one central thrust unit arranged along the longitudinal axis of the vehicle, at a distance from the rotation axis of the main rotor; - at least one mounting support on either side of the body; - at least one side thrust unit mounted to each mounting support; wherein the at least one central thrust unit comprises a fan which provides air flow with at least a flow component perpendicular to a virtual vertical midplane of the vehicle; wherein each of said side thrust units comprises a fan which provides air flow with at least a flow component parallel to said virtual vertical midplane; wherein at least one of said side thrust units is provided with controllable air deflection means to deflect a the corresponding output air flow in a controllable manner; characterized in that at least one of the at least one central thrust units is provided with controllable air deflection means to deflect a corresponding output air flow in a controllable manner.