mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a light source member configured to provide a first light with a first wavelength; a color conversion member disposed on the light source member and comprising a first conversion material adapted to convert the first wavelength of the first light into a second light with a second wavelength and a second conversion material adapted to convert the first wavelength of the first light into a third light with a third wavelength; the first, the second, and the third wavelength being different from one another; wherein a low-refractive index layer is disposed on the light source member and on at least one of upper and lower portions of the color conversion member, wherein the low-refractive index layer comprises a matrix part and a plurality of hollow particles dispersed in the matrix characterized in that the hollow particles are inorganic particles and the low-refractive index layer further comprises a plurality of void parts defined by the matrix part, wherein the hollow inorganic particles have sphere shapes and a mean diameter of about 20 nm to about 200 nm, and a cross-section of each hollow inorganic particle has a circular shape, and wherein the first light is a blue light, the first conversion material is a first quantum dot that converts the blue light into a green light, and the second conversion material is a second quantum dot that converts the blue light into a red light, the first and the second quantum dot have a particle having a size of a nano scale and a full width of half maximum FWHM of an emission wavelength spectrum of about 45 nm or less. a light source member configured to provide a first light with a first wavelength; a color conversion member disposed on the light source member and comprising a first conversion material adapted to convert the first wavelength of the first light into a second light with a second wavelength and a second conversion material adapted to convert the first wavelength of the first light into a third light with a third wavelength; the first, the second, and the third wavelength being different from one another; wherein a low-refractive index layer is disposed on the light source member and on at least one of upper and lower portions of the color conversion member, wherein the low-refractive index layer comprises a matrix part and a plurality of hollow particles dispersed in the matrix characterized in that the hollow particles are inorganic particles and the low-refractive index layer further comprises a plurality of void parts defined by the matrix part, wherein the hollow inorganic particles have sphere shapes and a mean diameter of about 20 nm to about 200 nm, and a cross-section of each hollow inorganic particle has a circular shape, and wherein the first light is a blue light, the first conversion material is a first quantum dot that converts the blue light into a green light, and the second conversion material is a second quantum dot that converts the blue light into a red light, the first and the second quantum dot have a particle having a size of a nano scale and a full width of half maximum FWHM of an emission wavelength spectrum of about 45 nm or less.
An ultraviolet radiation lamp comprising: a substantially sealed cavity comprising a mercury-containing material; a filament disposed in the sealed cavity; and an electrical control element in contact with the filament, the electrical control element configured to control the current applied to the filament thereby to apply heat to the mercury-containing material to adjust or maintain a temperature of the mercury-containing material with respect to a prescribed temperature. a substantially sealed cavity comprising a mercury-containing material; a filament disposed in the sealed cavity; and an electrical control element in contact with the filament, the electrical control element configured to control the current applied to the filament thereby to apply heat to the mercury-containing material to adjust or maintain a temperature of the mercury-containing material with respect to a prescribed temperature.
A track mechanism for a door unit of a front-loading washing machine comprising a base, the base being provided with a track portion configured to guide a movable body to move along the track portion, wherein the base comprises a supporting body and a track body, the track portion is arranged on the track body, the supporting body and the track body are stacked and combined relative to each other, the supporting body is provided with a guide portion in a corresponding shape and position to the track portion, and wear resistance of the track body is higher than that of the supporting body.
Water-conducting household appliance, in particular laundry treatment appliance for washing and/or drying laundry, having a housing, a container receptacle for receiving a container containing a quantity of a liquid basic treatment agent sufficient for a plurality of treatments, an intermediate store arranged in the housing which can be filled from the container containing the liquid basic treatment agent which can be inserted into the container receptacle, wherein the intermediate store has a storage volume which receives a quantity of the basic treatment agent sufficient for a plurality of, in particular approximately two to approximately three, treatments, and at least one dispensing chamber is provided, which serves to receive a liquid or non-liquid treatment agent, characterised in that furthermore a cup receptacle is provided which serves to receive at least one cup (7, 8, 9) containing a liquid treatment agent, the quantity of which is matched to precisely one treatment.
A mixing assembly comprising - a mixing tube (82; 194) comprising a mixing tube wall with a plurality of mixing tube ports (86; 196), the mixing tube (82; 194) having a first and a second end, the first end of the mixing tube defining a gas inlet opening, the plurality of mixing tube ports (86; 196) defining gas outlet ports; - a mixing body (98; 162), the mixing body including: ∘ a first gas passage (100; 164); ∘ a second gas passage (102, 148); ∘ an opening that connects the first and the second gas passages (100, 102; 164, 148); wherein the mixing tube (82; 194) is mounted in the opening so that, in use, first gas (122; 252) that flows from the first gas passage (100; 164) to the second gas passage (102; 148) has to enter the gas inlet opening of the mixing tube (82; 194) and leave the mixing tube (82; 194) via the plurality of mixing tube ports (86; 196); characterized in that, the mixing tube (82; 194) has a mixing tube flange (96; 198), the mixing body (98; 162) including a mixing tube mounting surface (108; 200) for accommodating the mixing tube flange (96; 198); and in that the mixing body (98; 162) includes a circlip groove (110; 202) adjacent the mixing tube mounting surface (108; 200), the mixing tube (82; 194) being connected to the mixing body (98; 162) by a circlip (112; 201). - a mixing tube (82; 194) comprising a mixing tube wall with a plurality of mixing tube ports (86; 196), the mixing tube (82; 194) having a first and a second end, the first end of the mixing tube defining a gas inlet opening, the plurality of mixing tube ports (86; 196) defining gas outlet ports; - a mixing body (98; 162), the mixing body including: ∘ a first gas passage (100; 164); ∘ a second gas passage (102, 148); ∘ an opening that connects the first and the second gas passages (100, 102; 164, 148); ∘ a first gas passage (100; 164); ∘ a second gas passage (102, 148); ∘ an opening that connects the first and the second gas passages (100, 102; 164, 148);
A bio-information measuring apparatus, comprising: a pulse wave sensor configured to measure a pulse wave signal from an object, wherein the pulse wave signal has a first wavelength, and the pulse wave sensor measures a plurality of pulse wave signals having two or more wavelengths different from the first wavelength; a fingerprint sensor configured to obtain fingerprint information of the object; and a processor configured to estimate a contact area between the object and the pulse wave sensor based on the fingerprint information, obtain a differential signal between the pulse wave signal of the first wavelength and each of the plurality of pulse wave signals having the two or more wavelengths different from the first wavelength, determine a force exerted from the object to the pulse wave sensor based on the differential signal, determine a contact pressure based on the force and the contact area, obtain an oscillometric waveform based on the plurality of pulse wave signals and the contact pressure and obtain bio-information based on the oscillometric waveform. a pulse wave sensor configured to measure a pulse wave signal from an object, wherein the pulse wave signal has a first wavelength, and the pulse wave sensor measures a plurality of pulse wave signals having two or more wavelengths different from the first wavelength; a fingerprint sensor configured to obtain fingerprint information of the object; and a processor configured to estimate a contact area between the object and the pulse wave sensor based on the fingerprint information, obtain a differential signal between the pulse wave signal of the first wavelength and each of the plurality of pulse wave signals having the two or more wavelengths different from the first wavelength, determine a force exerted from the object to the pulse wave sensor based on the differential signal, determine a contact pressure based on the force and the contact area, obtain an oscillometric waveform based on the plurality of pulse wave signals and the contact pressure and obtain bio-information based on the oscillometric waveform.
A battery connector system for connecting battery cells of a battery module comprising: a carrier assembly having a carrier housing and a plurality of bus bar assemblies held by the carrier housing, the bus bar assemblies are configured to connect corresponding battery cell terminals (120, 122) of adjacent battery cells, the carrier assembly comprising a plurality of cell connecting sections each holding a corresponding bus bar assembly and cover portions associated with the cell connecting sections, wherein the carrier housing has a unitary construction with each of the cell connecting sections and cover portions being integral, wherein each of the plurality of cell connecting sections includes a bus bar cavity portion receiving a corresponding bus bar assembly and a wire trace cavity portion receiving a corresponding sensing wire assembly, and wherein each of the cover portions comprise a bus bar cover portion covering the bus bar cavity portion and corresponding bus bar assembly and a wire trace cover portion covering the wire trace cavity portion and corresponding sensing wire assembly, characterized in that each bus bar cavity portion includes an outer wall and each wire trace cavity portion includes an outer wall on an opposite side of the carrier housing to the outer wall of the bus bar cavity portion, flexible hinges extending between adjacent outer walls of the bus bar cavity portions of adjacent cell connecting sections and flexible hinges extending between adjacent outer walls of the wire trace cavity portions of adjacent cell connecting sections. a carrier assembly having a carrier housing and a plurality of bus bar assemblies held by the carrier housing, the bus bar assemblies are configured to connect corresponding battery cell terminals (120, 122) of adjacent battery cells, the carrier assembly comprising a plurality of cell connecting sections each holding a corresponding bus bar assembly and cover portions associated with the cell connecting sections, wherein the carrier housing has a unitary construction with each of the cell connecting sections and cover portions being integral, wherein each of the plurality of cell connecting sections includes a bus bar cavity portion receiving a corresponding bus bar assembly and a wire trace cavity portion receiving a corresponding sensing wire assembly, and wherein each of the cover portions comprise a bus bar cover portion covering the bus bar cavity portion and corresponding bus bar assembly and a wire trace cover portion covering the wire trace cavity portion and corresponding sensing wire assembly, characterized in that each bus bar cavity portion includes an outer wall and each wire trace cavity portion includes an outer wall on an opposite side of the carrier housing to the outer wall of the bus bar cavity portion, flexible hinges extending between adjacent outer walls of the bus bar cavity portions of adjacent cell connecting sections and flexible hinges extending between adjacent outer walls of the wire trace cavity portions of adjacent cell connecting sections.
A method for improving the quality of a starch-containing food, wherein transglucosidase is used, wherein the starch-containing food is a cooked rice food, a processed wheat food or a processed potato food, and wherein the reaction time is 5 minutes to 24 hours and the reaction temperature is 4 to 70 °C.
Method for generating braking power by actuating at least one electric braking motor in a vehicle parking brake comprising at least two control units (11, 24) for controlling at least one braking motor, wherein in the event of a failure of a first control unit/braking motor unit a second control unit/braking motor unit is automatically activated for the generation of braking power if the vehicle speed or a corresponding driving state variable is less than an assigned limit value and/or a characteristic variable in the vehicle indicates an existing or imminent vehicle standstill, characterized in that the automatic braking power generation is carried out only after a defined period of time has elapsed since the detection of the vehicle standstill.
A pultrusion process for making a strip for an elongate reinforcing structure of a wind turbine blade, the process comprising: drawing fibres and resin through a pultrusion die in a process direction to form a strip; characterised by applying an infusion-promoting layer to a surface (106, 108) of the strip down-stream from the die in the process direction. drawing fibres and resin through a pultrusion die in a process direction to form a strip; characterised by applying an infusion-promoting layer to a surface (106, 108) of the strip down-stream from the die in the process direction.
Whey protein micelles for use in the prevention or treatment of overweight and/or obesity in a subject, wherein the whey protein micelles are administered to said subject in combination with a meal, wherein the meal comprises whey protein isolates, native or hydrolyzed milk proteins, free amino acids, or a combination thereof.
A device comprising: a medical device for delivering nanoparticles of an active agent to a treatment site; and a removable coating on the medical device comprising the active agent nanoparticles, wherein the active agent is a macrolide immunosuppressive drug, at least 95% of which is in crystalline form, and which active agent nanoparticles are, on average, at most 1 micrometer, at least a portion of the coating being deliverable to the treatment site which portion releases active agent nanoparticles into the treatment site over at least about 1 day, and wherein preparing the coating comprises depositing poly(lactide-co-glycolide) (PLGA), followed by depositing the active agent nanoparticles, wherein the coating further comprises a cationic binding agent in a target ratio of active agent:cationic binding agent of 1:1 to 10:1, wherein the actual ratio on the device is ±30% of the target ratio.
A method for determining the core temperature of food to be cooked during a cooking process in a cooking device, comprising at least one temperature sensor which can be at least partially introduced into the food to be cooked, one computing unit and one memory, wherein the food to be cooked is heated at least temporarily from outside to inside during the cooking process, at least one temperature is measured in at least one arbitrary location in the inside of the food to be cooked at at least two points in time or continuously with the aid of the temperature sensor and, in order to determine the core temperature from the measured temperatures, a heat conduction equation which describes the diffusion of thermal energy is solved at least approximately, wherein at least two boundary conditions for solving the heat conduction equation, which make it possible to find solutions to the heat conduction equation, are obtained by means of methods which are selected from the group comprising presetting by means of an input device, presetting by means of a reading device of the cooking device, presetting by means of a reading device of a device which is in operative connection with the cooking device, determination by evaluating measurement data of at least one additional sensor (24, 39, 42, 45, 48) during the cooking process and specification by empirical values obtained from previous cooking processes, wherein the boundary conditions are selected from the group comprising the size of the food to be cooked, the shape of the food to be cooked, the weight of the food to be cooked, the type of the food to be cooked, the nature of the food to be cooked, the thermal capacity of the food to be cooked, the thermal diffusivity in the food to be cooked, the thermal conductivity of the food to be cooked, the specific heat of the food to be cooked, the temperature on the surface of the food to be cooked, the temperature of a cooking medium in the cooking device, the heat exchange from a cooking medium to the food to be cooked, the density of the food to be cooked, the position of the food to be cooked in the cooking chamber, the number of items of food to be cooked, the surface structure of the food to be cooked and the preparatory treatment of the food to be cooked.
An apparatus for intravascular access device displacement detection, the intravascular access device for insertion into a blood vessel through the skin at an access site and to be attached thereto, the intravascular access device being connected to an external machine or infusion device, the apparatus comprising: electrodes (20, 22) for attachment to the skin at the access site and to be located at first and second sides respectively of said intravascular access device, the electrodes (20, 22) being connected to a power source, the power source providing a measurable micro-current, characterized by the electrodes (20, 22) allowing said measurable micro-current to flow therebetween through the patient's skin; the apparatus further characterized by an alert device associated with said electrodes (20, 22) and to issue an alert signal upon interruption of said micro-current flowing between said electrodes (20, 22), said alert signal being configured to shut down a fluid supply of said external machine or infusion device to said intravascular access device; and the apparatus further being characterized by a dongle holding said power source and said alert device. electrodes (20, 22) for attachment to the skin at the access site and to be located at first and second sides respectively of said intravascular access device, the electrodes (20, 22) being connected to a power source, the power source providing a measurable micro-current, characterized by the electrodes (20, 22) allowing said measurable micro-current to flow therebetween through the patient's skin; the apparatus further characterized by an alert device associated with said electrodes (20, 22) and to issue an alert signal upon interruption of said micro-current flowing between said electrodes (20, 22), said alert signal being configured to shut down a fluid supply of said external machine or infusion device to said intravascular access device; and the apparatus further being characterized by a dongle holding said power source and said alert device.
A cot comprising a wheeled transporter and a leg release assembly, wherein: the wheeled transporter comprises a frame, a leading leg pivotally connected to the frame, and a trailing leg pivotally connected to the frame; the leg release assembly comprises a contact member pivotally connected to the wheeled transporter, a pivotal leg release member releasably engaged with at least one of the leading leg and the trailing leg, and a linkage member operably connecting the contact member and the leg release member; the contact member is pressure-sensitive and activates with an application of pressure thereto; the leg release member pivots to disengage from the at least one of the leading leg and the trailing leg with activation of the contact member; the at least one of the leading leg and the trailing leg folds relative to the frame with disengagement from the leg release member; and the wheeled transporter further comprises a cot support (56A; 56B) connected proximally to a leading end of the frame, and the contact member is pivotally connected to the cot support (56A; 56B) such that the contact member pivots relative to the cot support (56A;56B) with the application of pressure to the contact member, characterized in that the contact member is configured to activate, via contact with a support object, to permit folding of the leading leg with the advancement of the cot onto said support object without the need of an operator manually manipulating a release handle. the wheeled transporter comprises a frame, a leading leg pivotally connected to the frame, and a trailing leg pivotally connected to the frame; the leg release assembly comprises a contact member pivotally connected to the wheeled transporter, a pivotal leg release member releasably engaged with at least one of the leading leg and the trailing leg, and a linkage member operably connecting the contact member and the leg release member; the contact member is pressure-sensitive and activates with an application of pressure thereto; the leg release member pivots to disengage from the at least one of the leading leg and the trailing leg with activation of the contact member; the at least one of the leading leg and the trailing leg folds relative to the frame with disengagement from the leg release member; and the wheeled transporter further comprises a cot support (56A; 56B) connected proximally to a leading end of the frame, and the contact member is pivotally connected to the cot support (56A; 56B) such that the contact member pivots relative to the cot support (56A;56B) with the application of pressure to the contact member, characterized in that the contact member is configured to activate, via contact with a support object, to permit folding of the leading leg with the advancement of the cot onto said support object without the need of an operator manually manipulating a release handle.