mhurhangee/patent-ind-claim-en huggingface dataset:
A colloidal nanosheet comprising an initial colloidal semiconductor nanocrystal surrounded laterally by a different semiconductor crystalline material represented by the formula M n X y , wherein M is a transition metal and X is a chalcogen; wherein said initial colloidal semiconductor nanocrystal and said semiconductor crystalline material have the same thickness; and wherein said initial colloidal nanocrystal and semiconductor crystalline material M n X y are made of CdO, CdS, CdSe, CdTe, ZnO, ZnS, ZnSe, ZnTe, PbO, PbS, PbSe, PbTe, GeS, GeSe, SnS, SnSe, GeS 2 , GeSe 2 , SnS 2 , SnSe 2 , HgS, HgSe, HgTe, CuInS 2 , CuInSe 2 , AgInS 2 , AgInSe 2 , CuS, Cu 2 S, Ag 2 S, Ag 2 Se, Ag 2 Te, FeS, FeS 2 , InP, Cd 3 P 2 , Zn 3 P 2 , FeO, Fe 2 O 3 , Fe 3 O 4 , Al 2 O 3 , TiO 2 , or alloys thereof.
Enzyme for reducing cystine to cysteine, characterized in that the enzyme is a fusion protein that comprises the protein activities of i) thioredoxin (protein i) having KEGG database number EC 1.8.4.8 or EC 1.8.4.10, wherein thioredoxin (protein i) is the protein activity of thioredoxin 1 from E. coli, and ii) thioredoxin reductase (protein ii) having KEGG database number EC 1.8.1.9, wherein the thioredoxin reductase (protein ii) is the protein activity of the thioredoxin reductase from E. coli, wherein the activity of the fusion protein is at least 100% of the activity of a mixture of the same but unfused individual proteins i and ii, wherein the fusion protein has the enzyme activity to reduce cystine to cysteine and wherein the coding sequences (cds) responsible for the activity of protein i and ii have been fused. i) thioredoxin (protein i) having KEGG database number EC 1.8.4.8 or EC 1.8.4.10, wherein thioredoxin (protein i) is the protein activity of thioredoxin 1 from E. coli, and ii) thioredoxin reductase (protein ii) having KEGG database number EC 1.8.1.9, wherein the thioredoxin reductase (protein ii) is the protein activity of the thioredoxin reductase from E. coli, wherein the activity of the fusion protein is at least 100% of the activity of a mixture of the same but unfused individual proteins i and ii, wherein the fusion protein has the enzyme activity to reduce cystine to cysteine and wherein the coding sequences (cds) responsible for the activity of protein i and ii have been fused.
A towel product comprising: a pile formed of a non-twisted cotton yarn characterised in that said cotton yarn has having a yarn count of 6.56-11.81 tex (50-90 Ne) both inclusive.
An electrode catalyst dispersion comprising: a) catalyst particles comprising i) a non-conductive support in the form of whiskers comprising one or more materials selected from the group consisting of naphthalenes, phenanthrenes, perylenes, anthracene, coronenes, pyrenes, phthalocyanines, porphyrins, carbazoles, purines and pterins, and ii) a conductive catalyst material covering the surface of non-conductive support whiskers; b) a dispersing medium selected from the group consisting of water, organic solvents and combinations thereof; and c) an ionic conductive polymer; wherein the catalyst particles and the ionic conductive polymer are dispersed in the dispersing medium, and wherein the volume percentage of the catalyst particles, based on the total volume of the catalyst particles and ionic conductive polymer, is in the range of 55 vol% to 90 vol%; wherein the term "whiskers" refers to an acicular form, but does not necessarily mean a linear shape. a) catalyst particles comprising i) a non-conductive support in the form of whiskers comprising one or more materials selected from the group consisting of naphthalenes, phenanthrenes, perylenes, anthracene, coronenes, pyrenes, phthalocyanines, porphyrins, carbazoles, purines and pterins, and ii) a conductive catalyst material covering the surface of non-conductive support whiskers; i) a non-conductive support in the form of whiskers comprising one or more materials selected from the group consisting of naphthalenes, phenanthrenes, perylenes, anthracene, coronenes, pyrenes, phthalocyanines, porphyrins, carbazoles, purines and pterins, and ii) a conductive catalyst material covering the surface of non-conductive support whiskers; b) a dispersing medium selected from the group consisting of water, organic solvents and combinations thereof; and c) an ionic conductive polymer;
A light emitting diode, comprising: a first conductivity type semiconductor layer ; a mesa (M) disposed on the first conductivity type semiconductor layer , and including an active layer and a second conductivity type semiconductor layer ; a transparent conductive oxide layer disposed on the mesa (M) and electrically connected to the second conductivity type semiconductor layer ; a dielectric layer covering the conductive oxide layer , and including a plurality of openings exposing the conductive oxide layer ; a metal reflection layer disposed on the dielectric layer , and electrically connecting to the conductive oxide layer through the openings of the dielectric layer ; a lower insulation layer covering the mesa (M) and the metal reflection layer , and including at least one first opening (33a1) and a second opening (33a2), wherein the second opening (33a2) exposes the metal reflection layer ; a first pad metal layer disposed on the lower insulation layer , and electrically connected to the first conductivity type semiconductor layer through the at least one first opening (33a1); and a second pad metal layer disposed on the lower insulation layer , and electrically connected to the metal reflection layer through the second opening (33a2); characterised in that the first opening (33a1) exposes the first conductivity type semiconductor layer , and in that the openings of the dielectric layer include a narrow and elongated bar-shaped opening adjacent to at least one of the first openings (33a1) of the lower insulation layer . a first conductivity type semiconductor layer ; a mesa (M) disposed on the first conductivity type semiconductor layer , and including an active layer and a second conductivity type semiconductor layer ; a transparent conductive oxide layer disposed on the mesa (M) and electrically connected to the second conductivity type semiconductor layer ; a dielectric layer covering the conductive oxide layer , and including a plurality of openings exposing the conductive oxide layer ; a metal reflection layer disposed on the dielectric layer , and electrically connecting to the conductive oxide layer through the openings of the dielectric layer ; a lower insulation layer covering the mesa (M) and the metal reflection layer , and including at least one first opening (33a1) and a second opening (33a2), wherein the second opening (33a2) exposes the metal reflection layer ; a first pad metal layer disposed on the lower insulation layer , and electrically connected to the first conductivity type semiconductor layer through the at least one first opening (33a1); and a second pad metal layer disposed on the lower insulation layer , and electrically connected to the metal reflection layer through the second opening (33a2); characterised in that the first opening (33a1) exposes the first conductivity type semiconductor layer , and in that the openings of the dielectric layer include a narrow and elongated bar-shaped opening adjacent to at least one of the first openings (33a1) of the lower insulation layer .
Mounting device for a two-stage charging system, comprising a. a first bearing component for supporting a first charging device , and b. a second bearing component for supporting a second charging device , having a connecting component for connecting the bearing components , the connecting component being formed in one piece with the bearing components and being attachable to an internal combustion engine component, characterized in that the connecting component extends in the manner of a web in a connecting direction . a. a first bearing component for supporting a first charging device , and b. a second bearing component for supporting a second charging device ,
A filter for insertion into a water storage tank of a beverage machine, such as an espresso machine, a fully automated coffee machine or the like, having a filter housing , with a water inlet open to the water storage tank and a water outlet that is connectable to a connection element of the water storage tank upon insertion, wherein an electronic communication element with antenna and microchip is arranged in the filter housing, characterized in that an air space is provided, into which the antenna is inserted such that the antenna is at least partially exposed to the air in the air space.
An encapsulation structure for encapsulating a display device, comprising a plurality of film layers coated on the outside of the display device , wherein the plurality of film layers comprises an inorganic layer and an organic layer that are overlaid, and the organic layer comprises a polymer matrix and a repairing microstructure , wherein the repairing microstructure is in the form of a capsule comprising a capsule wall and a capsule core, and a formation material of the capsule core comprises a repairing agent; and the repairing agent is used for a reversible addition-fragmentation transfer radical polymerization reaction with the polymer matrix , and the polymer matrix is formed from a polymerization reaction of a reactant mixture, characterized in that the reactant mixture comprises a polymeric monomer, an initiator, and a chain transfer agent, and the repairing agent comprises the polymeric monomer, and a formation material of the capsule wall comprises melamine formaldehyde resin, urea formaldehyde resin, and gelatin. wherein the repairing microstructure is in the form of a capsule comprising a capsule wall and a capsule core, and a formation material of the capsule core comprises a repairing agent; and the repairing agent is used for a reversible addition-fragmentation transfer radical polymerization reaction with the polymer matrix , and the polymer matrix is formed from a polymerization reaction of a reactant mixture, characterized in that the reactant mixture comprises a polymeric monomer, an initiator, and a chain transfer agent, and the repairing agent comprises the polymeric monomer, and a formation material of the capsule wall comprises melamine formaldehyde resin, urea formaldehyde resin, and gelatin.
Electrical step-down converter having a circuit input and a circuit output , which have a common reference potential , wherein the step-down converter comprises the following: - a current valve having an input and an output , - wherein the input is connected to the circuit input ; - a coil , which is connected between the output of the current valve and the circuit output ; - a diode , which is used in the forward direction from the reference potential to the output of the current valve ; - an output capacitor between the circuit output and the reference potential ; and - a control device for periodically opening and closing the current valve ; characterized in that - a Zener diode with forward direction to the reference potential is inserted between the anode of the diode and the reference potential ; - a resistor is provided in parallel with the diode . - a current valve having an input and an output , - wherein the input is connected to the circuit input ; - a coil , which is connected between the output of the current valve and the circuit output ; - a diode , which is used in the forward direction from the reference potential to the output of the current valve ; - an output capacitor between the circuit output and the reference potential ; and - a control device for periodically opening and closing the current valve ; characterized in that - a Zener diode with forward direction to the reference potential is inserted between the anode of the diode and the reference potential ; - a resistor is provided in parallel with the diode .
Electromechanical actuator , comprising: - drive means , - an electric motor configured to supply a torque to the drive means , and - an electronic control unit configured to control the electric motor , characterised in that the electronic control unit comprises a control stage , configured to implement an algorithm for controlling the electric motor , and a power stage configured to transmit electrical energy to the electric motor under the control of the control stage , the control stage and the power stage being arranged at a distance from each other. - drive means , - an electric motor configured to supply a torque to the drive means , and - an electronic control unit configured to control the electric motor , characterised in that the electronic control unit comprises a control stage , configured to implement an algorithm for controlling the electric motor , and a power stage configured to transmit electrical energy to the electric motor under the control of the control stage , the control stage and the power stage being arranged at a distance from each other.
A steering wheel for a vehicle comprising a steering wheel rim and one or more steering wheel spokes , wherein at least the steering wheel rim comprises a coating and at least one elongate electric conductor for a steering wheel heating, wherein a connecting terminal connected to an electric power source inside the vehicle to which first and second ends of the at least one conductor are electrically connected is arranged on the steering wheel rim and/or on one of the steering wheel spokes , characterized in that the connecting terminal comprises a temperature sensor and a heating controller configured as temperature controller for the steering wheel heating and is arranged in a pocket inside the coating .
A method of increasing the linearity of a semiconductor device , the method comprising: forming a semiconductor device that includes a plurality of unit cell transistors on a common semiconductor structure , the unit cell transistors electrically connected in parallel, and each of the unit cell transistors includes a respective gate finger , applying one or more voltage signals to the respective gate fingers of the unit cell transistors in order to turn on different portions of a 2DEG channel of the semiconductor device at respective different levels of current flow, wherein the semiconductor structure includes a gallium nitride based channel layer and a gallium nitride based barrier layer on the gallium nitride based channel layer , and wherein the gate fingers extend in parallel to one another, wherein the unit cell transistors are divided into a plurality of groups (102 1 , 102 2 ), each of the groups includes at least five unit cell transistors, wherein the threshold voltages of the unit cell transistors within each of the groups are within 0.01 volts of each other, and, wherein each of the groups includes the same number of unit cell transistors. forming a semiconductor device that includes a plurality of unit cell transistors on a common semiconductor structure , the unit cell transistors electrically connected in parallel, and each of the unit cell transistors includes a respective gate finger , applying one or more voltage signals to the respective gate fingers of the unit cell transistors in order to turn on different portions of a 2DEG channel of the semiconductor device at respective different levels of current flow, wherein the semiconductor structure includes a gallium nitride based channel layer and a gallium nitride based barrier layer on the gallium nitride based channel layer , and wherein the gate fingers extend in parallel to one another, wherein the unit cell transistors are divided into a plurality of groups (102 1 , 102 2 ), each of the groups includes at least five unit cell transistors, wherein the threshold voltages of the unit cell transistors within each of the groups are within 0.01 volts of each other, and, wherein each of the groups includes the same number of unit cell transistors.
A light emitting device comprising: at least one light emitting diode chip ; a wavelength converting member having a lower surface, an upper surface and lateral surfaces, containing a fluorescent substance , and being placed on the at least one light emitting diode chip; a light transmissive cover member covering the upper surface of the wavelength converting member; a light transmissive adhesive member interposed between the light emitting diode chip and the wavelength converting member, covering the lower surface of the wavelength converting member; and a light reflective member , wherein the adhesive member does not extend onto the lower surface or the lateral surfaces of the light transmissive cover member, wherein the light transmissive cover member continuously covers the upper surface and the lateral surfaces of the wavelength converting member, wherein the light reflective member covers the lateral surfaces of the wavelength converting member indirectly via the light transmissive cover member, and wherein the lateral surfaces of the light transmissive cover member are smoother than the lateral surfaces of the wavelength converting member. at least one light emitting diode chip ; a wavelength converting member having a lower surface, an upper surface and lateral surfaces, containing a fluorescent substance , and being placed on the at least one light emitting diode chip; a light transmissive cover member covering the upper surface of the wavelength converting member; a light transmissive adhesive member interposed between the light emitting diode chip and the wavelength converting member, covering the lower surface of the wavelength converting member; and a light reflective member , wherein the adhesive member does not extend onto the lower surface or the lateral surfaces of the light transmissive cover member, wherein the light transmissive cover member continuously covers the upper surface and the lateral surfaces of the wavelength converting member, wherein the light reflective member covers the lateral surfaces of the wavelength converting member indirectly via the light transmissive cover member, and wherein the lateral surfaces of the light transmissive cover member are smoother than the lateral surfaces of the wavelength converting member.
An electrical power system , characterized by comprising: a direct current (DC) bus comprising a positive rail configured to provide a positive DC voltage, a negative rail configured to provide a negative DC voltage, and a ground rail ; a first energy storage module (ESM) and a second ESM connected to the DC bus , each ESM comprising an energy storage device and each ESM connected to and configured to provide an output voltage to a respective one of the positive and negative rails, a node connecting the first and second ESMs (24A,B) to each other and to the ground rail ; and a controller configured to determine values for the output voltages for use during a discharging mode in which the energy storage devices discharge onto the DC bus and a charging mode in which the energy storage devices charge from the DC bus based on a difference between a state of charge value of each of the first and second energy storage devices; and wherein each ESM (24A,B) includes a DC/DC converter that connects its respective energy storage device to the DC bus , and the output voltages are DC/DC converter output voltages. a direct current (DC) bus comprising a positive rail configured to provide a positive DC voltage, a negative rail configured to provide a negative DC voltage, and a ground rail ; a first energy storage module (ESM) and a second ESM connected to the DC bus , each ESM comprising an energy storage device and each ESM connected to and configured to provide an output voltage to a respective one of the positive and negative rails, a node connecting the first and second ESMs (24A,B) to each other and to the ground rail ; and a controller configured to determine values for the output voltages for use during a discharging mode in which the energy storage devices discharge onto the DC bus and a charging mode in which the energy storage devices charge from the DC bus based on a difference between a state of charge value of each of the first and second energy storage devices; and wherein each ESM (24A,B) includes a DC/DC converter that connects its respective energy storage device to the DC bus , and the output voltages are DC/DC converter output voltages.
The finger spray pump for spraying a medium (M), comprising a pump head , an outlet nozzle and a pump chamber having an inlet valve (E) and a pump piston , wherein the medium (M) passes through a medium path between the pump chamber and the outlet nozzle , wherein, furthermore, the pump piston in cooperation with a piston rod forms an outlet valve (A) and the pump piston runs in a pump cylinder , wherein further a latching part is connected to the pump cylinder on the upper side thereof and that that the latching part is formed for supporting a pump head spring which supports the pump head relative to the pump cylinder , characterized in that between the piston rod and the pump piston further an active piston spring is provided and that the piston spring and the pump head spring are supported on the latching part .
Composition comprising from 0.005 weight% to 0.250 weight% of Harungana madagascariensis leaf extract, based on the weight of the dry extract and of the total weight of the formulation, for its use to treat and/or to prevent acne, in a method of treatment of the human body by therapy.
Stripping device for an aqueous heat transfer fluid for air conditioning, heating and ventilation technology, comprising - a tank with two connections for a circuit carrying a heat transfer fluid, - Means for separating gas bubbles and separating gas components and heat transfer fluid while retaining the liquid in the circuit carrying the heat transfer fluid, from this heat transfer fluid, - furthermore at least one outlet for separated gas components , - an addition device for stripping gas is provided, - an outlet for stripping gas is provided, whereby - a feeding device for heat transfer fluid is provided in the upper area of the container , - a collecting device for heat transfer fluid is provided in the lower area of the container , - the collecting device for heat transfer fluid is connected to an outlet for heat transfer fluid from the container , characterised in that - the outlet for heat transfer fluid from the tank is connected to an automatic heating circuit deaerator , - wherein the automatic heating circuit ventilator is connected to an air extractor . - a tank with two connections for a circuit carrying a heat transfer fluid, - Means for separating gas bubbles and separating gas components and heat transfer fluid while retaining the liquid in the circuit carrying the heat transfer fluid, from this heat transfer fluid, - furthermore at least one outlet for separated gas components , - an addition device for stripping gas is provided, - an outlet for stripping gas is provided, - a feeding device for heat transfer fluid is provided in the upper area of the container , - a collecting device for heat transfer fluid is provided in the lower area of the container , - the collecting device for heat transfer fluid is connected to an outlet for heat transfer fluid from the container , - the outlet for heat transfer fluid from the tank is connected to an automatic heating circuit deaerator , - wherein the automatic heating circuit ventilator is connected to an air extractor .