mhurhangee/ep-ind-claims huggingface dataset:
A photoactive composition comprising: (a) 50-99 wt% based on the total weight of the photoactive composition, of at least one first host material having a HOMO energy level; (b) 1-10 wt% based on the total weight of the photoactive composition, of an emissive dopant; (c) 0.1 to 10 wt% based on the total weight of the photoactive composition, of a non-emissive dopant, wherein the non-emissive dopant is an organometallic iridium complex having a HOMO energy level shallower than the HOMO energy level of the first host and a wider band gap than the emissive dopant; and (d) 1-49 wt% based on the total weight of the photoactive composition, of a second host material having a HOMO energy level that is deeper than the HOMO energy level of the non-emissive dopant, wherein the first host material has Formula I where: Ar 1 to Ar 4 are the same or different and are aryl; Q is chrysene, phenanthrene, triphenylene, phenanthroline, naphthalene, anthracene, quinoline, or isoquinoline; and m is an integer from 0-6. (a) 50-99 wt% based on the total weight of the photoactive composition, of at least one first host material having a HOMO energy level; (b) 1-10 wt% based on the total weight of the photoactive composition, of an emissive dopant; (c) 0.1 to 10 wt% based on the total weight of the photoactive composition, of a non-emissive dopant, wherein the non-emissive dopant is an organometallic iridium complex having a HOMO energy level shallower than the HOMO energy level of the first host and a wider band gap than the emissive dopant; and (d) 1-49 wt% based on the total weight of the photoactive composition, of a second host material having a HOMO energy level that is deeper than the HOMO energy level of the non-emissive dopant, wherein the first host material has Formula I where: Ar 1 to Ar 4 are the same or different and are aryl; Q is chrysene, phenanthrene, triphenylene, phenanthroline, naphthalene, anthracene, quinoline, or isoquinoline; and m is an integer from 0-6. Ar 1 to Ar 4 are the same or different and are aryl; Q is chrysene, phenanthrene, triphenylene, phenanthroline, naphthalene, anthracene, quinoline, or isoquinoline; and m is an integer from 0-6.
A method of processing video of image data captured by an image capture device for use in a surgical system, wherein the images captured by the image capture device are encoded by a video encoder having video encoding configuration parameters, wherein the method is performed in a surgical system having a surgeon console to receive inputs from a surgeon and a processor to receive and process control command inputs from the surgeon console to control manipulation of one or more surgical instruments at a surgical site in a field of view of the image capture device or movement of the image capture device or adjustments of the field of view of the image capture device, the method comprising: receiving the control command inputs from the surgeon console at a state monitor for monitoring conditions including surgical instrument motions in the field of view or movement of the image capture device or adjustments of the field of view of the image capture device that may cause a change in content of the field of view of the image capture device by relying on the received control command inputs; detecting (610, 710, 815) by the state monitor, based on the received control command inputs, a condition that may have a future effect on the content of the field of view captured by the image capture device; adjusting (615, 720, 825, 830) an encoding configuration of a video encoder in response to determining that the condition is predicted to affect the content of the field of view, wherein the adjusting occurs in advance of the change in content of the field of view; and encoding (620, 725, 855) image data captured by the image capture device after the change of content of the field of view using the adjusted encoding configuration. receiving the control command inputs from the surgeon console at a state monitor for monitoring conditions including surgical instrument motions in the field of view or movement of the image capture device or adjustments of the field of view of the image capture device that may cause a change in content of the field of view of the image capture device by relying on the received control command inputs; detecting (610, 710, 815) by the state monitor, based on the received control command inputs, a condition that may have a future effect on the content of the field of view captured by the image capture device; adjusting (615, 720, 825, 830) an encoding configuration of a video encoder in response to determining that the condition is predicted to affect the content of the field of view, wherein the adjusting occurs in advance of the change in content of the field of view; and encoding (620, 725, 855) image data captured by the image capture device after the change of content of the field of view using the adjusted encoding configuration.
An input circuit comprising: an input line for providing input regarding state of a load; a first impedance connected to the input line at a first node for connecting a voltage source to the input line; and a second impedance connected to the input line at a second node for connecting the input line to ground; characterized by a Zener diode connected in the input line in series between the first and second nodes to impede current flowing through the Zener diode below the Zener voltage thereof in a direction from the first node to the second node, and to allow current above the Zener voltage thereof in the direction from the first node to the second node; the input circuit characterized by further comprising a load line connected to the input line at an input node on a side of the first node opposite the second node for connecting a load to the input line; and a third impedance connected to the input line at the input node for providing voltage open input from the input line to a logic device connected to the second node of the input line; wherein the third impedance connects between the input line and ground. an input line for providing input regarding state of a load; a first impedance connected to the input line at a first node for connecting a voltage source to the input line; and a second impedance connected to the input line at a second node for connecting the input line to ground; characterized by a Zener diode connected in the input line in series between the first and second nodes to impede current flowing through the Zener diode below the Zener voltage thereof in a direction from the first node to the second node, and to allow current above the Zener voltage thereof in the direction from the first node to the second node; the input circuit characterized by further comprising a load line connected to the input line at an input node on a side of the first node opposite the second node for connecting a load to the input line; and a third impedance connected to the input line at the input node for providing voltage open input from the input line to a logic device connected to the second node of the input line; wherein the third impedance connects between the input line and ground.
Method for drying humid air from a working space of a water-carrying machine, in particular a dishwashing machine, said method comprising the following steps: - provision of the humid air in the working space at a temperature of between 40°C and 50°C; - provision of a cooling medium in a heat-exchanger at a temperature of below 20°C; - conduction of the humid air, which has been temperature-controlled in this way, out of the working space through the heat-exchanger, wherein the cooling medium is cooled before it is provided in the heat-exchanger and said cooling medium is cooled by means of a circuit at a cold reservoir. - provision of the humid air in the working space at a temperature of between 40°C and 50°C; - provision of a cooling medium in a heat-exchanger at a temperature of below 20°C; - conduction of the humid air, which has been temperature-controlled in this way, out of the working space through the heat-exchanger,
Infant food powder comprising core granules containing probiotic bacteria, at least one substrate, and optionally other food grade ingredients; wherein the cores are coated with two layers, an inner layer comprising hydroxypropyl starch; and an outer layer comprising phosphated distarch phosphate, acetylated distarch phosphate or a combination thereof.
A method of manufacturing a liquid jet head chip, comprising: a substrate preparation step of preparing an actuator plate substrate having a jet channel to be communicated with a nozzle hole configured to jet liquid, and a non-jet channel which does not jet the liquid; and a protective film formation step of forming a protective film configured to protect an electrode formed on an inner surface of the jet channel from the liquid in a state in which the jet channel is exposed and the non-jet channel is covered, after the substrate preparation step, wherein the actuator plate substrate has a first surface on which a nozzle plate provided with the nozzle hole communicated with the jet channel is disposed, in the protective film formation step, a mask (Ma,42) having an opening part from which the jet channel is exposed is disposed on the first surface of the actuator plate substrate, and then, the protective film is provided to the jet channel through the opening part, the actuator plate substrate further has a second surface crossing the first surface, and in the protective film formation step, the mask (Ma)is disposed so as to straddle the first surface and the second surface of the actuator plate substrate, and then, the protective film is provided to the jet channel through the opening part. a substrate preparation step of preparing an actuator plate substrate having a jet channel to be communicated with a nozzle hole configured to jet liquid, and a non-jet channel which does not jet the liquid; and a protective film formation step of forming a protective film configured to protect an electrode formed on an inner surface of the jet channel from the liquid in a state in which the jet channel is exposed and the non-jet channel is covered, after the substrate preparation step, wherein the actuator plate substrate has a first surface on which a nozzle plate provided with the nozzle hole communicated with the jet channel is disposed, in the protective film formation step, a mask (Ma,42) having an opening part from which the jet channel is exposed is disposed on the first surface of the actuator plate substrate, and then, the protective film is provided to the jet channel through the opening part, the actuator plate substrate further has a second surface crossing the first surface, and in the protective film formation step, the mask (Ma)is disposed so as to straddle the first surface and the second surface of the actuator plate substrate, and then, the protective film is provided to the jet channel through the opening part.
An electric brake device comprising: an electric motor; a brake rotor; a friction pad configured to come into contact with the brake rotor to generate a braking force; a transmission mechanism configured to convert a rotary motion of the electric motor into a motion of the friction pad; a braking force command section configured to generate a command value of a target braking force by using an operation amount of a brake operation portion; a braking force estimation section configured to obtain an estimated value of a braking force that presses the friction pad against the brake rotor; a motor rotation angle detector configured to detect a rotation angle of the electric motor; and a controller configured to control the electric motor according to the command value and the estimated value of the braking force, characterized in that, the motor rotation angle detector has a higher resolution than a motor rotation angle that causes a braking force fluctuation equivalent to a minimum braking force resolution of the braking force estimation section, and wherein the controller includes a resolution interpolation section configured to interpolate, by using the motor rotation angle detected by the motor rotation angle detector, the minimum resolution of the braking force obtained by the braking force estimation section. an electric motor; a brake rotor; a friction pad configured to come into contact with the brake rotor to generate a braking force; a transmission mechanism configured to convert a rotary motion of the electric motor into a motion of the friction pad; a braking force command section configured to generate a command value of a target braking force by using an operation amount of a brake operation portion; a braking force estimation section configured to obtain an estimated value of a braking force that presses the friction pad against the brake rotor; a motor rotation angle detector configured to detect a rotation angle of the electric motor; and a controller configured to control the electric motor according to the command value and the estimated value of the braking force, characterized in that, the motor rotation angle detector has a higher resolution than a motor rotation angle that causes a braking force fluctuation equivalent to a minimum braking force resolution of the braking force estimation section, and wherein the controller includes a resolution interpolation section configured to interpolate, by using the motor rotation angle detected by the motor rotation angle detector, the minimum resolution of the braking force obtained by the braking force estimation section.
Adjustable lens comprising: a transparent support substrate with a disposed gel or elastomer on a side of the support, wherein a thin glass cover is disposed on top of the gel or elastomer, wherein the thin glass cover is arranged with a circular shaped glass cut-out in the middle defining a glass island without any mechanical contact with the rest of the thin glass cover, wherein at least one piezo electric element is in contact with edges of the glass island, wherein at least one spacer member is arranged along one edge of the transparent support, wherein the at least one spacer member is supporting the thin glass cover, wherein the at least one spacer element comprises electric conducting materials providing electric contacting of the adjustable lens with other components of an optical system and wherein spacer elements along the edge of the at least one support provides electric connections for signals applied on the piezoelectric ring element. a transparent support substrate with a disposed gel or elastomer on a side of the support, wherein a thin glass cover is disposed on top of the gel or elastomer, wherein the thin glass cover is arranged with a circular shaped glass cut-out in the middle defining a glass island without any mechanical contact with the rest of the thin glass cover, wherein at least one piezo electric element is in contact with edges of the glass island, wherein at least one spacer member is arranged along one edge of the transparent support, wherein the at least one spacer member is supporting the thin glass cover, wherein the at least one spacer element comprises electric conducting materials providing electric contacting of the adjustable lens with other components of an optical system and wherein spacer elements along the edge of the at least one support provides electric connections for signals applied on the piezoelectric ring element.
A method for the separation of chondroitin sulphate and keratan sulphate from an aqueous solution containing them, comprising the addition to the aqueous solution of a water-miscible organic solvent in conditions of ionic strength inducing formation of a two liquid phases, a dense phase in which CS concentrates and a light phase in which KS concentrates, the percentage by volume of each specific organic solvent being determined by a graph correlating said percentage to the measured conductivity value or to the concentration of the aqueous solution.
Method for producing a paved surface from paving elements, in particular from paving stones or paving slabs, characterised in that the paving elements are printed onto a surface on-site from a printable material in a 3D printing process by means of a 3D printing device.
A gas valve unit, comprising a pipe and at least one valve arranged to the pipe, and a gas tight enclosure, enclosing the pipe and the at least one valve, and being provided with an inlet and an outlet, in which gas valve unit the pipe is arranged to extend inside the enclosure from the inlet of the enclosure to the outlet of the enclosure, characterized in that - the valve comprising a drive shaft having a first axis of rotation, and the valve is operable by subjecting a rotational movement to the drive shaft of the valve, - an actuating shaft having a second axis of rotation, - a shaft lead-through unit releasably connected to the enclosure in gas tight manner, into which shaft lead-through unit the drive shaft is arranged so as to extend from inside to outside of the enclosure, and - the drive shaft and the actuating shaft are arranged in force transmission connection with each other by a coupling which is configured to allow mutual lateral displacement of the ends of the drive shaft and the actuating shaft. - the valve comprising a drive shaft having a first axis of rotation, and the valve is operable by subjecting a rotational movement to the drive shaft of the valve, - an actuating shaft having a second axis of rotation, - a shaft lead-through unit releasably connected to the enclosure in gas tight manner, into which shaft lead-through unit the drive shaft is arranged so as to extend from inside to outside of the enclosure, and - the drive shaft and the actuating shaft are arranged in force transmission connection with each other by a coupling which is configured to allow mutual lateral displacement of the ends of the drive shaft and the actuating shaft.
A controller for controlling the operation of a power plant, the power plant comprising a wind turbine and a solar power generator, the controller 22 comprising: an input arranged to receive an input signal indicative of an operating parameter of the solar power generator; a shadow detection module arranged to monitor the operating parameter and to detect a shadow at least partially shading the solar power generator, the detected shadow being caused by a blade of the wind turbine; a shadow prediction module arranged to predict at least one subsequent blade shadow in dependence on the detected blade shadow; a command module arranged to determine a command signal for controlling the solar power generator based on the blade shadow prediction; and an output arranged to output the command signal to the solar power generator. an input arranged to receive an input signal indicative of an operating parameter of the solar power generator; a shadow detection module arranged to monitor the operating parameter and to detect a shadow at least partially shading the solar power generator, the detected shadow being caused by a blade of the wind turbine; a shadow prediction module arranged to predict at least one subsequent blade shadow in dependence on the detected blade shadow; a command module arranged to determine a command signal for controlling the solar power generator based on the blade shadow prediction; and an output arranged to output the command signal to the solar power generator.
A system for antenna diagnosis, comprising: - at least one probe antenna that captures the radiated signal radiated by the antenna being measured when it moves along a path; - a radiofrequency unit that measures one or more of the properties of the signal captured by the probe antenna along a path; - positioning means providing the position of the probe antenna along the path; - processing means with at least one processor, a memory and a programme or programmes which are stored in the memory and comprise a plurality of instructions performing the diagnosis of the antenna being measured by processing the properties of the signal measured by the radiofrequency unit combined with the position provided by the positioning means; characterised in that the probe antenna can be moved manually by an operator following an arbitrary path within an investigation volume, comprising a reference surface which is situated at a distance comprised between 1 cm and 100 cm of the antenna being measured, and in that the processing means comprise a plurality of instructions which, when executed by the processor, diagnose the antenna being measured by means of the calculation of at least the tangential component of the electric field, or of the magnetic field, or of both, in the aperture of the antenna being measured based on a representation by means of a basis function expansion of equivalent currents in the aperture or electric field modes obtained from the properties of the signal captured by the probe antenna associated with the position provided by the positioning means. - at least one probe antenna that captures the radiated signal radiated by the antenna being measured when it moves along a path; - a radiofrequency unit that measures one or more of the properties of the signal captured by the probe antenna along a path; - positioning means providing the position of the probe antenna along the path; - processing means with at least one processor, a memory and a programme or programmes which are stored in the memory and comprise a plurality of instructions performing the diagnosis of the antenna being measured by processing the properties of the signal measured by the radiofrequency unit combined with the position provided by the positioning means;
A process for injection molding an article from a thermosetting bio-based material comprising the steps of: providing a mold; introducing the bio-based material in combination with sufficient liquid to facilitate heat transfer into an injection molding apparatus including a screw and barrel to facilitate movement of the bio-based material through the barrel, wherein the screw is a metering screw with a constant depth of flight along its length; injecting the bio-based material into the mold, wherein the mold temperature is about 121°C (250°F) to about 166°C (330°F); and compressing and curing the material within the heated mold to form the article. providing a mold; introducing the bio-based material in combination with sufficient liquid to facilitate heat transfer into an injection molding apparatus including a screw and barrel to facilitate movement of the bio-based material through the barrel, wherein the screw is a metering screw with a constant depth of flight along its length; injecting the bio-based material into the mold, wherein the mold temperature is about 121°C (250°F) to about 166°C (330°F); and compressing and curing the material within the heated mold to form the article.
A method of monitoring a condition of a movable member in a linear motor system comprising a track and at least one movable member coupled to the track and configured to move along said track, the movable member comprising a vibration sensor thereon, the method comprising: - positioning the movable member at a monitoring region of the track, - applying vibration to the movable member, and - detecting a response of the movable member to the vibration by means of the vibration sensor, the method being characterized in that the step of applying vibration to the movable member comprises applying a predetermined motion profile (S1, S2) to the movable member. - positioning the movable member at a monitoring region of the track, - applying vibration to the movable member, and - detecting a response of the movable member to the vibration by means of the vibration sensor,