mhurhangee/ep-ind-claims huggingface dataset:
An implantable apparatus for stimulating tissue, comprising: an implantable coil; a power circuit and stimulator module comprising a half-wave rectifier configured to convert an induced AC voltage on the implantable coil into a DC voltage, wherein the power circuit and stimulator module is configured to produce a constant voltage stimulus whose one or more stimulation parameters being frequency, pulse width or intensity are determined by a power signal received at said implantable coil from an external device; stimulus electrodes connected to the power circuit and stimulator module, wherein said stimulus electrodes are configured to perform bipolar electrical stimulation using the voltage stimulus produced by the power circuit and stimulator module; a reverse telemetry module connected to the implantable coil; a sensor connected to the reverse telemetry module; and at least one recording electrode connected to the sensor; wherein the implantable coil is configured to couple to the external device through a wireless inductive coupling allowing the external device to control the one or more stimulation parameters when applying the voltage stimulus by the implantable apparatus at a treatment location in a body tissue through the stimulus electrodes; and wherein the sensor is configured to measure one or more of the intensity of the applied voltage stimulus and a physiological signal received from the body tissue for transmission as measurements by the reverse telemetry module to the external device. an implantable coil; a power circuit and stimulator module comprising a half-wave rectifier configured to convert an induced AC voltage on the implantable coil into a DC voltage, wherein the power circuit and stimulator module is configured to produce a constant voltage stimulus whose one or more stimulation parameters being frequency, pulse width or intensity are determined by a power signal received at said implantable coil from an external device; stimulus electrodes connected to the power circuit and stimulator module, wherein said stimulus electrodes are configured to perform bipolar electrical stimulation using the voltage stimulus produced by the power circuit and stimulator module; a reverse telemetry module connected to the implantable coil; a sensor connected to the reverse telemetry module; and at least one recording electrode connected to the sensor; wherein the implantable coil is configured to couple to the external device through a wireless inductive coupling allowing the external device to control the one or more stimulation parameters when applying the voltage stimulus by the implantable apparatus at a treatment location in a body tissue through the stimulus electrodes; and wherein the sensor is configured to measure one or more of the intensity of the applied voltage stimulus and a physiological signal received from the body tissue for transmission as measurements by the reverse telemetry module to the external device.
A method for controlling aging compensation in an OLED display having one or more light emitting elements comprising the steps of initializing a correction signal value to a value representing no change in control signals applied to the OLED display, wherein the control signals are one of converted image and data signals from an external device; periodically measuring a change in display output, wherein the measurement is one or more measurements from the group including a light output of one or more of the light emitting elements, a current used by one or more of the light emitting elements, a voltage across one or more of the light emitting elements, an accumulation over time of the use of current by one or more of the light emitting elements, an accumulation of the luminance values provided to one or more of the light emitting elements, an accumulation of the time that one or more of the light emitting elements is in use, a sampling of the data displayed on the display, and a temperature of the display; calculating the correction signal value based on the periodic measurement; comparing any change in the correction signal value to a correction limit; if the change in the correction signal value is within the correction limit, applying the correction signal value to the control signals applied to the OLED display to effect a correction in the display output; and if the change in the correction signal value exceeds the correction limit, restricting the change in the correction signal value to monotonically increasing corrections and then applying the restricted correction signal value to the control signals applied to the OLED display to effect a correction in the display output.
An implantable device comprising a plurality of magnetic segments coupled together with an exoskeleton that surrounds on three sides said plurality of magnetic segments wherein said exoskeleton comprises a shape memory material which is adapted to transition between a delivery configuration having a linear shape and a delivered configuration having a pre-determined geometric shape, said exoskeleton being adapted to direct the magnetic segments to self-assemble into said pre-determined geometric shape.
A solid polyaluminoxane composition production method comprising: a step of contacting a polyaluminoxane composition solution including a polyalkylaluminoxane, a trialkylaluminum and a hydrocarbon solvent, with at least one organic compound containing a Group 15-17 element in the periodic table; a step of precipitating a solid polyaluminoxane composition by reacting the compounds with an aluminum-carbon bond present in the polyaluminoxane composition solution with the organic compound under heating conditions at 40°C or above; and a step of thermally aging the precipitate at 65 to 200°C, preferably 90 to 200°C, after the precipitation step. a step of contacting a polyaluminoxane composition solution including a polyalkylaluminoxane, a trialkylaluminum and a hydrocarbon solvent, with at least one organic compound containing a Group 15-17 element in the periodic table; a step of precipitating a solid polyaluminoxane composition by reacting the compounds with an aluminum-carbon bond present in the polyaluminoxane composition solution with the organic compound under heating conditions at 40°C or above; and a step of thermally aging the precipitate at 65 to 200°C, preferably 90 to 200°C, after the precipitation step.
A work vehicle comprising a cabin, a support frame, an antenna unit, whereby the support frame extends in a lateral width direction and is fixed to a cabin frame at an upper position outside the cabin, and whereby the antenna unit, in which an inertial measurement unit, a GNSS antenna, and a wireless communicator are built, is attached to the support frame in a state where the inertial measurement unit and the GNSS antenna are basically placed at a center position in the lateral width direction of a vehicle body, and whereby the antenna unit is attached to the support frame to be displaceable from a normal use position, in which the antenna unit protrudes above a roof of the cabin, to a lower non-use position, in which the antenna unit is lower than a highest part of the roof. whereby the support frame extends in a lateral width direction and is fixed to a cabin frame at an upper position outside the cabin, and whereby the antenna unit, in which an inertial measurement unit, a GNSS antenna, and a wireless communicator are built, is attached to the support frame in a state where the inertial measurement unit and the GNSS antenna are basically placed at a center position in the lateral width direction of a vehicle body, and whereby the antenna unit is attached to the support frame to be displaceable from a normal use position, in which the antenna unit protrudes above a roof of the cabin, to a lower non-use position, in which the antenna unit is lower than a highest part of the roof.
An isolated polypeptide, wherein the polypeptide: (a) comprises an amino acid sequence set forth as SEQ ID NOs: 3, 1 or 5; or (b) comprises an amino acid sequence sharing not less than 95% identity to the amino acid sequence set forth as SEQ ID NOs: 3, 1 or 5; or (c) is encoded by a nucleic acid sequence set forth as SEQ ID NOs: 4, 2 or 6 or a complement thereof; and wherein the polypeptide is a defensin. (a) comprises an amino acid sequence set forth as SEQ ID NOs: 3, 1 or 5; or (b) comprises an amino acid sequence sharing not less than 95% identity to the amino acid sequence set forth as SEQ ID NOs: 3, 1 or 5; or (c) is encoded by a nucleic acid sequence set forth as SEQ ID NOs: 4, 2 or 6 or a complement thereof;
A method of providing a coating to a surface of an optical element of a solar energy conversion system comprising: a) coating the surface of the optical element with an aqueous coating composition having a pH of 5 or less and comprising water and silica nanoparticles dispersed in the water; and b) heating the optical element to at least 300 °C to dry the coating composition to form a nanoparticle coating, wherein the silica nanoparticles comprise a polymer core surrounded by a shell comprising nonporous silica particles disposed on the polymer core. a) coating the surface of the optical element with an aqueous coating composition having a pH of 5 or less and comprising water and silica nanoparticles dispersed in the water; and b) heating the optical element to at least 300 °C to dry the coating composition to form a nanoparticle coating,
A composition comprising: a polycarbonate; 1 to 5 wt% based on a total weight of the composition of a nanosilica having a D 50 particle size by volume of 5 to 50 nanometers determined in accordance with ISO-22412-17; wherein the nanosilica has a hydrophobic coating; and a siloxane domain having repeat units of the formula 10; wherein each R is independently a C 1-13 monovalent organic group; wherein the composition comprises a polycarbonate-polysiloxane copolymer, wherein the polysiloxane portion of the polycarbonate-polysiloxane copolymer constitutes at least a portion of the siloxane domain, the nanosilica is present in an amount of 2 to 5 wt%, and the value of E of formula is 40 to 80, wherein the polycarbonate-polysiloxane copolymer can be the same or different as the polycarbonate. a polycarbonate; 1 to 5 wt% based on a total weight of the composition of a nanosilica having a D 50 particle size by volume of 5 to 50 nanometers determined in accordance with ISO-22412-17; wherein the nanosilica has a hydrophobic coating; and a siloxane domain having repeat units of the formula 10; wherein each R is independently a C 1-13 monovalent organic group; wherein the composition comprises a polycarbonate-polysiloxane copolymer, wherein the polysiloxane portion of the polycarbonate-polysiloxane copolymer constitutes at least a portion of the siloxane domain, the nanosilica is present in an amount of 2 to 5 wt%, and the value of E of formula is 40 to 80, wherein the polycarbonate-polysiloxane copolymer can be the same or different as the polycarbonate.
A rotor, comprising: at least two rotor blades, wherein each rotor blade of the at least two rotor blades rotates around a rotor axis and performs pitching around a pitch axis, wherein the rotor axis and the pitch axis intersect in a rotor center (P 0), characterized in that each rotor blade comprises: at least one permanent magnet having a first spherical magnet surface arranged such that the first spherical magnet surface has a first predetermined radius (R 1) from the rotor center (P 0); and a pitch control apparatus for controlling the pitching of the at least two rotor blades that comprises electrically controlled magnets having a second spherical magnet surface arranged such that the second spherical magnet surface has a second predetermined radius (R 2) from the rotor center (P 0); wherein the at least one permanent magnet and the electrically controlled magnets arranged opposing each other, form a gap between the first spherical magnet surface and the second spherical magnet surface, the gap being constant during control of the pitching of the at least two rotor blades. at least two rotor blades, wherein each rotor blade of the at least two rotor blades rotates around a rotor axis and performs pitching around a pitch axis, wherein the rotor axis and the pitch axis intersect in a rotor center (P 0), characterized in that each rotor blade comprises: at least one permanent magnet having a first spherical magnet surface arranged such that the first spherical magnet surface has a first predetermined radius (R 1) from the rotor center (P 0); and a pitch control apparatus for controlling the pitching of the at least two rotor blades that comprises electrically controlled magnets having a second spherical magnet surface arranged such that the second spherical magnet surface has a second predetermined radius (R 2) from the rotor center (P 0); wherein the at least one permanent magnet and the electrically controlled magnets arranged opposing each other, form a gap between the first spherical magnet surface and the second spherical magnet surface, the gap being constant during control of the pitching of the at least two rotor blades.
A light emitting device comprising a light source and a luminescent material, which luminescent material comprises: one or more matrix materials, and, disposed in said one or more matrix materials, a first plurality of nanoparticles comprising a first crystalline compound, and a second plurality of nanoparticles comprising a second crystalline compound, wherein the first crystalline compound and the second crystalline compound are different perovskite compounds of formula: 3 wherein: is at least one monocation; is at least one metal or metalloid dication; and is at least one halide anion. one or more matrix materials, and, disposed in said one or more matrix materials, a first plurality of nanoparticles comprising a first crystalline compound, and a second plurality of nanoparticles comprising a second crystalline compound, wherein the first crystalline compound and the second crystalline compound are different perovskite compounds of formula: 3 wherein: is at least one monocation; is at least one metal or metalloid dication; and is at least one halide anion.
Handheld forceps comprising: a body comprising a trunk and a first arm and a second arm extending from a base of the trunk coupled at one end and separated from one another at a second end, characterized by further comprising: a rod disposed in the body, the rod comprising a first end positioned in the first arm and a second end positioned in the second arm and forming an apex in the trunk; a compression spring disposed around the apex of the rod in the trunk; and a button coupled to the apex of the rod and protruding through an opening in the trunk, wherein the rod has a first position wherein the first end and the second end are operable with the arms to accept a tip on the end of the respective first end and respective second end and a second position operable to separate the tip from the respective first end or second end, wherein the rod is operable to move from the first position to the second position by the depression of the button toward the opening in the trunk, and wherein the rod is biased to the first position by the compression spring. a rod disposed in the body, the rod comprising a first end positioned in the first arm and a second end positioned in the second arm and forming an apex in the trunk; a compression spring disposed around the apex of the rod in the trunk; and a button coupled to the apex of the rod and protruding through an opening in the trunk, wherein the rod has a first position wherein the first end and the second end are operable with the arms to accept a tip on the end of the respective first end and respective second end and a second position operable to separate the tip from the respective first end or second end, wherein the rod is operable to move from the first position to the second position by the depression of the button toward the opening in the trunk, and wherein the rod is biased to the first position by the compression spring.
A window heating system for providing current to a heating element, said window heating system comprising: a first sensor; a second sensor; a sensor selection module configured to determine a state of at least said first sensor, said sensor selection module comprising a first comparator associated with said first sensor and configured to determine whether a condition of said first sensor is satisfied; and a controller configured to control current to the heating element based on said second sensor when said first comparator determines the condition of said first sensor is not satisfied, characterised in that said sensor selection module comprises a first pair of current sensors (226a and 226b) electrically coupled between said first sensor and a power supply, each of the first pair of current sensors (226a, 226b) being coupled in series on opposite sides of the first sensor, and wherein the condition of said first sensor comprises a difference in sensed current across said first sensor between said first pair of current sensors (226a, 226b) being within a predetermined range. a first sensor; a second sensor; a sensor selection module configured to determine a state of at least said first sensor, said sensor selection module comprising a first comparator associated with said first sensor and configured to determine whether a condition of said first sensor is satisfied; and a controller configured to control current to the heating element based on said second sensor when said first comparator determines the condition of said first sensor is not satisfied, characterised in that said sensor selection module comprises a first pair of current sensors (226a and 226b) electrically coupled between said first sensor and a power supply, each of the first pair of current sensors (226a, 226b) being coupled in series on opposite sides of the first sensor, and wherein the condition of said first sensor comprises a difference in sensed current across said first sensor between said first pair of current sensors (226a, 226b) being within a predetermined range.
Communications terminal, comprising - one first and at least one second communications interface for communicating with a communications system, and - a transport protocol module for transferring reference data between the communications terminal and the communications system via at least one of the two communications interfaces, wherein a communications module which is arranged between the transport protocol module and the two communications interfaces is configured such that an active session connection (SV; SVW) established via one of the two communications interfaces between the communications terminal and the communications system is transferred without interruption thereof as an active session connection (SV; SVW) between the communications terminal and the communications system via the further communications interface, characterised in that the communications module is designed for transferring the active session connection (SV; SVW) without involving an SIP application module connected for exchanging registration information and for transferring reference data, in that the communications module automatically initiates a re-registration process RPR in which the information SIP(a), IP(b) is transferred to an IMS server and the information Codec List, IP(b), Port(b) is transferred to the communications system KS via the IMS server. - one first and at least one second communications interface for communicating with a communications system, and - a transport protocol module for transferring reference data between the communications terminal and the communications system via at least one of the two communications interfaces, wherein
A method of maintaining a connection cache at an intermediate server, the connection cache relating to resource requests from a plurality of devices to a plurality of servers remote therefrom, the method comprising: monitoring resource requests addressed to a plurality of said remote servers during a first time period; generating statistics data on the basis of the monitored resource requests; establishing a plurality of connections from the intermediate server to a subset of the plurality of remote servers, said subset being determined on the basis of the generated statistics data; and storing data indicative of the plurality of established connections in a connection cache. monitoring resource requests addressed to a plurality of said remote servers during a first time period; generating statistics data on the basis of the monitored resource requests; establishing a plurality of connections from the intermediate server to a subset of the plurality of remote servers, said subset being determined on the basis of the generated statistics data; and storing data indicative of the plurality of established connections in a connection cache.
Method for positioning a measuring point at at least one blood-carrying vessel (5, 18, 19) of an opened bird's egg for subsequent sexing of the bird's egg including a generation of a hole on the bird's egg, the latter having at least a blunt pole and a pointed pole and an eggshell with an inner shell membrane and an outer shell membrane located closer to the shell of the bird's egg, wherein the bird's egg is opened to carry out at least one optical measurement in relation to the blood, characterized in that the hole in the blunt pole of the bird's egg is generated by means of a hole generation unit, wherein the hole relates to the shell and the outer shell membrane, which forms an air pocket with an inner shell membrane, but the inner shell membrane remains intact, wherein at least one blood vessel (5, 19, 18) is registered below the intact inner shell membrane in the region of the hole in the blunt pole and the blood in said blood vessel is excited by means of incident specified radiation, the backscattered radiation thereof relating to the blood and passing through the intact inner shell membrane being measured, detected and evaluated for sexing, characterized in that shafts (33, 36) that are rotatable/tiltable in an xy-plane are twisted by means of a motor-controlled tilt apparatus, which is connected to a central control unit, so that should the embryo deviate from the central egg axis the deviating embryo is brought into the immediate region of the egg axis in centred fashion and a minimum distance is obtained between the arch of the inner shell membrane and the embryo.
Method for diagnosing the degree of contamination of a heat exchanger (8, 18) used to exchange heat between a network circuit and a consumer circuit, in which the mass flow of the fluid through the network circuit of the heat exchanger (8, 18) is set by a control valve (6, 16) that is controlled by a process controller (4, 14), characterized in that the position values of the control valve (6, 16) provided by the process controller (4, 14) are detected and stored, said position values for the control valve (6, 16) are recorded over a recording period in such a way that valve position values associated with a periodic observation period are stored in at least one measurement series, said observation period reflecting equal parts of a year, wherein a degree of contamination of the heat exchanger (8, 18) is diagnosed by evaluating the position values from said at least one measurement series over the recording period if the deviation of a stored measured value from a respective reference value assigned to the measurement series is higher than a predefined deviation from the reference value.