mhurhangee/patent-ind-claim-en huggingface dataset:
Method for thermal disinfection - i.e. for germ reduction - of a centrifuge having a rotatable drum which is used for centrifugal processing of a product, wherein the germ reduction is carried out with steam which is not under increased pressure or which is under atmospheric pressure, wherein the steam is passed through an inlet , distribution channels , through a centrifugal chamber , through the separating disc stack and through an outlet , characterized in that the drum is rotated during the passage of the steam at a speed below the operating speed during the centrifugal processing of the respective product, which is set to the lowest possible value at which the penetration of steam into a drive chamber is just prevented, and in that the humidity in the drive chamber is measured. the drum is rotated during the passage of the steam at a speed below the operating speed during the centrifugal processing of the respective product, which is set to the lowest possible value at which the penetration of steam into a drive chamber is just prevented, and in that the humidity in the drive chamber is measured.
A method comprising: illuminating a scene with a first sensing spectrum emitted by a first subset of a plurality of primary light sources, wherein a light emitting array comprises said plurality of primary light sources, by modulating a light output from the first subset of the plurality of primary light sources; sensing first image data of the scene for a plurality of pixels while the scene is illuminated with the first sensing spectrum; after sensing the first image data, illuminating the scene with a second sensing spectrum emitted by a second subset of the plurality of primary light sources different than the first subset, by modulating a light output from the second subset of the plurality of primary light sources; sensing second image data of the scene for the plurality of pixels while the scene is illuminated with the second sensing spectrum; the method characterised by comprising: generating a color map of the scene assigning a color point in a color space to each of the pixels based on the first sensing spectrum, the first image data, the second sensing spectrum, and the second image data; determining spectrum optimization criteria for the plurality of primary light sources from the color map and a desired output parameter; and activating the plurality of the primary light sources to emit a lighting spectrum based on the spectrum optimization criteria, wherein the first subset has a first primary color, and the second subset has a second primary color different from the first primary color. illuminating a scene with a first sensing spectrum emitted by a first subset of a plurality of primary light sources, wherein a light emitting array comprises said plurality of primary light sources, by modulating a light output from the first subset of the plurality of primary light sources; sensing first image data of the scene for a plurality of pixels while the scene is illuminated with the first sensing spectrum; after sensing the first image data, illuminating the scene with a second sensing spectrum emitted by a second subset of the plurality of primary light sources different than the first subset, by modulating a light output from the second subset of the plurality of primary light sources; sensing second image data of the scene for the plurality of pixels while the scene is illuminated with the second sensing spectrum; the method characterised by comprising: generating a color map of the scene assigning a color point in a color space to each of the pixels based on the first sensing spectrum, the first image data, the second sensing spectrum, and the second image data; determining spectrum optimization criteria for the plurality of primary light sources from the color map and a desired output parameter; and activating the plurality of the primary light sources to emit a lighting spectrum based on the spectrum optimization criteria, wherein the first subset has a first primary color, and the second subset has a second primary color different from the first primary color.
A removal module for removing a mis-assembled semiconductor LED, comprising: a housing having an inner space formed by an upper plate having a nozzle hole and a lower plate spaced apart from the upper plate ; a fluid supply part configured to supply a fluid from outside the housing to the inner space ; and a fluid control part configured to control a spray of the fluid supplied to the inner space through the nozzle hole by adjusting a pressure of the inner space by changing the volume of the inner space by applying temperature or vibration. a housing having an inner space formed by an upper plate having a nozzle hole and a lower plate spaced apart from the upper plate ; a fluid supply part configured to supply a fluid from outside the housing to the inner space ; and a fluid control part configured to control a spray of the fluid supplied to the inner space through the nozzle hole by adjusting a pressure of the inner space by changing the volume of the inner space by applying temperature or vibration.
Shifting device for controlling vehicle, machine, or system functions, comprising a shifting lever , which can be adjusted in a pivoting manner about at least one axis , wherein the shifting device has an actuator , which is kinematically connected to the shifting lever via a self-locking drive in order to pivot it, and therefore an adjustment of the shifting lever is only possible by means of the actuator , and the shifting device further comprises a force measurement device (10, 11; 10.1, 11.1) for detecting the actuating force exerted on the shifting lever by the user, and a control unit to which the signal of the force measurement device (10, 11; 10.1, 11.1) is applied in order to evaluate the force measurement data and for controlling the actuator , characterised in that the actuator is mounted on bearings in a floating manner in relation to the force measurement device (10, 11; 10.1, 11.1).
Attachment device for attaching an add-on part to an anchoring base , wherein the attachment device comprises: a screw which is provided at least in portions with an exterior thread for screwing into the anchoring base ; and a thermally isolating isolation body which is fixed on an end portion of the screw in a manner rotatable with respect to the screw and secured against displacement, and which comprises an attachment unit for attaching the add-on part when the screw is anchored in the anchoring base , and wherein the isolation body comprises an anti-rotation protection at its exterior side. a screw which is provided at least in portions with an exterior thread for screwing into the anchoring base ; and a thermally isolating isolation body which is fixed on an end portion of the screw in a manner rotatable with respect to the screw and secured against displacement, and which comprises an attachment unit for attaching the add-on part when the screw is anchored in the anchoring base , and wherein the isolation body comprises an anti-rotation protection at its exterior side.
A method comprising: supplying pressurized air to a plurality of nozzles (302a-302j), the nozzles arranged in an array across a control surface of an aircraft, the nozzles (302a-302j) oriented to eject the pressurized air in a substantially streamwise direction, wherein the nozzles are converging-diverging nozzles configured to eject the air at a supersonic speed; selecting a wave pattern based on at least one of an ambient air temperature, an altitude, an airspeed of the aircraft, a ground speed of the aircraft, a position of the control surface or a weather condition; and activating the nozzles (302a-302j) to eject the pressurized air at a supersonic speed and in sequence to create a wave of air moving in a spanwise direction across the control surface , wherein the nozzles (302a-302j) are activated simultaneously or individually in accordance with the wave pattern. supplying pressurized air to a plurality of nozzles (302a-302j), the nozzles arranged in an array across a control surface of an aircraft, the nozzles (302a-302j) oriented to eject the pressurized air in a substantially streamwise direction, wherein the nozzles are converging-diverging nozzles configured to eject the air at a supersonic speed; selecting a wave pattern based on at least one of an ambient air temperature, an altitude, an airspeed of the aircraft, a ground speed of the aircraft, a position of the control surface or a weather condition; and activating the nozzles (302a-302j) to eject the pressurized air at a supersonic speed and in sequence to create a wave of air moving in a spanwise direction across the control surface , wherein the nozzles (302a-302j) are activated simultaneously or individually in accordance with the wave pattern.
Bearing unit for a rotationally fixed mounting of a drive unit of a shaft assembly for a closure or protective device, comprising a holding piece , which comprises a receiving profile , and a connecting piece , which is adapted to the receiving profile , and which is arranged to be connected with a drive unit , wherein the holding piece provides a first receiving position and a second receiving position for the connecting piece , characterized in that the first receiving position is a maintenance and disassembly position, that the connecting piece , in the first receiving position, is rotatable relative to the holding piece , to rotate the drive unit relative to the holding piece , so that manual winding and unwinding of the shaft assembly is enabled, and that the connecting piece , in the second receiving position, is secured against rotation relative to the holding piece , comprising a positive position securing for the connecting piece by the holding piece for the torque support, and that the connecting piece is movable, under force application for overcoming a holding force, between the first receiving position and the second receiving position.
A method performed by a network node for communicating using time division duplexing, TDD, on a first radio access technology, RAT, carrier located within a frequency band of a second RAT, the method comprising: transmitting a first communication on the first RAT carrier to a first wireless device, wherein a carrier center frequency of the first RAT carrier aligns with a middle of a resource block, RB, of the second RAT, and wherein the first RAT uses a 100 kHz based channel raster and the second RAT uses a subcarrier spacing, SCS, based channel raster.
A personal care composition comprising, a liquid and a fibrous material of natural origin obtained from plants, wherein the fibrous material comprises micro-scaled and/or nano-scaled fibril agglomerates, wherein the micro-scaled fibril agglomerates have an average length in the range of 500 nm - 1000 μm, preferably in the range of 500 nm to 600 μm and even more preferably in the range of 500 nm to 200 μm, and wherein the nano-scale fibril agglomerates have an average length in the range of 10 nm to 500 nm, characterized in that the fibrous material contains more than 10 wt% xylose, in particular more than 15 wt% xylose, referred to the total weight of the fibrous material.
Inhaler , preferably for insertion into a nostril , in particular of a horse , with an inhalation valve , which has a movable valve element which is configured in an annular manner and has an outer edge and an inner edge , wherein the valve element is fastened at the outer edge , wherein the inner edge forms the boundary of a through passage of the valve element , wherein the inhalation valve has a valve body seat that corresponds to the inner edge , characterized in that the inhaler comprises a discharge nozzle , wherein the discharge nozzle is arranged in the through passage of the valve element .
Battery system comprising at least a battery module including a plurality of battery cells, a battery module housing for accommodating the battery module and a cooling unit , wherein the battery module housing and a complementary housing of the cooling unit are connected by a coolant distribution interface comprising at least: - the battery module housing with at least one mounting portion located at an entrance of a coolant channel being formed by the battery module housing , wherein the mounting portion features a first sealing section and a second sealing section ; - the complementary housing with at least one complementary mounting portion located at an entrance of a complementary coolant channel being formed by the complementary housing , wherein the complementary mounting portion features a first complementary sealing section and a second complementary sealing section ; wherein - the mounting portion and the complementary mounting portion are mounted together, thereby connecting the coolant channel with the complementary coolant channel so as to form a joint coolant channel ; and wherein further - a shared sealing element is located between each second sealing section and second complementary sealing section ; and - each first sealing section and first complementary sealing section are sealed against the joint coolant channel by a channel sealing element , so that a security chamber is formed by the respective mounting portions (26; 28), shared sealing element and channel sealing element , characterized in that , a testing channel penetrates at least one of the housings (14; 24), thereby fluidly connecting the security chamber with an outside of the respective housing (14; 24). - the battery module housing with at least one mounting portion located at an entrance of a coolant channel being formed by the battery module housing , wherein the mounting portion features a first sealing section and a second sealing section ; - the complementary housing with at least one complementary mounting portion located at an entrance of a complementary coolant channel being formed by the complementary housing , wherein the complementary mounting portion features a first complementary sealing section and a second complementary sealing section ; wherein - the mounting portion and the complementary mounting portion are mounted together, thereby connecting the coolant channel with the complementary coolant channel so as to form a joint coolant channel ; and wherein further - a shared sealing element is located between each second sealing section and second complementary sealing section ; and - each first sealing section and first complementary sealing section are sealed against the joint coolant channel by a channel sealing element , so that a security chamber is formed by the respective mounting portions (26; 28), shared sealing element and channel sealing element ,
A dummy element , in particular a dummy vehicle, comprising a dummy body having an illumination region which simulates an illumination device to be simulated of an element to be simulated, in particular of a vehicle, a lighting means , wherein the dummy body in the illumination region comprises an opening in which the lighting means is arranged, characterized in that the lighting means is formed without a housing, wherein no housing and no frame which are present in the opening are formed around the lighting means itself. a dummy body having an illumination region which simulates an illumination device to be simulated of an element to be simulated, in particular of a vehicle, a lighting means , wherein the dummy body in the illumination region comprises an opening in which the lighting means is arranged, characterized in that the lighting means is formed without a housing, wherein no housing and no frame which are present in the opening are formed around the lighting means itself.
Method for providing a way to verify the integrity of a document (A,B), the method comprising the following steps, in order: a) creating a digital signature of the document (A,B), associating the digital signature with the document (A,B) and storing both the document (A,B) and the digital signature in a central server; b) publishing the document (A,B) with a visibly embedded piece of information from which the digital signature can be deduced; c) providing a communication channel over which a third party can send a depiction of the published document (A,B) to the central server ; d) accepting said depiction of the published document (A,B) in the central server , and finding, in the central server and based upon the piece of information , the document ; and e) if the document (A,B) was found in the central server , communicating to the third party that document (A,B) itself and/or information pertinent to that document (A,B). a) creating a digital signature of the document (A,B), associating the digital signature with the document (A,B) and storing both the document (A,B) and the digital signature in a central server; b) publishing the document (A,B) with a visibly embedded piece of information from which the digital signature can be deduced; c) providing a communication channel over which a third party can send a depiction of the published document (A,B) to the central server ; d) accepting said depiction of the published document (A,B) in the central server , and finding, in the central server and based upon the piece of information , the document ; and e) if the document (A,B) was found in the central server , communicating to the third party that document (A,B) itself and/or information pertinent to that document (A,B).
A dielectric deposition film constituted by a dielectric composition including a complex oxide expressed by a general formula (aCaO + bSrO)-ZrO 2 as a main component, in which "a" and "b" of the general formula satisfy a ≥ 0, b ≥ 0, and 1.55 ≤ a + b ≤ 4.00, wherein a relative permittivity at 2GHz is 13.0 or more and a Q value is 500 or more.
A method comprising: detecting , by a primary node , that a backup node is available and unconfigured; querying , by the primary node , an identification from the backup node ; receiving , by the primary node , the identification of the backup node ; verifying , by the primary node , that the identification corresponds to hardware compatible with the primary node ; and if compatible hardware is found, automatically replicating , by the primary node , the primary node to the backup node , including replicating a personality of the primary node to the backup node . detecting , by a primary node , that a backup node is available and unconfigured; querying , by the primary node , an identification from the backup node ; receiving , by the primary node , the identification of the backup node ; verifying , by the primary node , that the identification corresponds to hardware compatible with the primary node ; and if compatible hardware is found, automatically replicating , by the primary node , the primary node to the backup node , including replicating a personality of the primary node to the backup node .
A method for fabricating a semiconductor device structure , comprising: forming a plurality of metal seeds upon a substrate , a metal seed of the plurality of metal seeds comprising a first vertical side and a neighboring metal seed of the plurality of metal seeds comprising a second vertical side opposite and parallel to the first side; forming a conductor material upon vertical sides of each metal seed of the plurality of metal seeds to form a plurality of gate conductors , the plurality of gate conductors comprising, gate conductor sidewalls provided along the vertical sides of a metal seed, a first gate conductor and a second gate conductor ; forming an insulator material upon each of the plurality of gate conductors to form a plurality of gate insulators , a first gate insulator of the plurality of gate insulators separated from a second gate insulator of the plurality of gate insulators by a first trench defined between opposing sidewalls of the gate insulators; and filling the first trench with a channel material to form a channel region . forming a plurality of metal seeds upon a substrate , a metal seed of the plurality of metal seeds comprising a first vertical side and a neighboring metal seed of the plurality of metal seeds comprising a second vertical side opposite and parallel to the first side; forming a conductor material upon vertical sides of each metal seed of the plurality of metal seeds to form a plurality of gate conductors , the plurality of gate conductors comprising, gate conductor sidewalls provided along the vertical sides of a metal seed, a first gate conductor and a second gate conductor ; forming an insulator material upon each of the plurality of gate conductors to form a plurality of gate insulators , a first gate insulator of the plurality of gate insulators separated from a second gate insulator of the plurality of gate insulators by a first trench defined between opposing sidewalls of the gate insulators; and filling the first trench with a channel material to form a channel region .
A multirotor aircraft that is adapted for vertical take-off and landing, comprising a fuselage and at least one thrust producing unit that is connected to the fuselage via an associated structural support and pivotable around the associated structural support relative to the fuselage , wherein the at least one thrust producing unit comprises at least one main rotor assembly , a plurality of secondary rotor assemblies , and a shrouding that forms a main air duct and a plurality of secondary air ducts , the main air duct being provided for interacting with the at least one main rotor assembly and the plurality of secondary air ducts being provided for interacting with the plurality of secondary rotor assemblies , wherein the plurality of secondary air ducts is peripherally arranged around the main air duct in an arc-shaped layout, wherein the at least one main rotor assembly and the plurality of secondary rotor assemblies are operable independent of each other, wherein the plurality of secondary rotor assemblies is configured to implement a tilting mechanism adapted for pivoting the at least one thrust producing unit around the associated structural support relative to the fuselage , and wherein at least a first portion of the plurality of secondary rotor assemblies is operable independent of a second portion of the plurality of secondary rotor assemblies to implement the tilting mechanism.
A marine vessel driven by an engine , said marine vessel comprising: a hull with a baseline extending between the bow and the aft, an engine arranged inside said hull , a pair of coaxial contra-rotating propellers mounted in tandem on concentric shafts at or near the aft of said hull and operably connected to said engine , and said pair of coaxial contra-rotating propellers comprising a first propeller with a first radius (RI) and a second propeller with a second radius (R2) that is smaller than said first radius (RI), the axis of said concentric shafts having a vertical distance (V) from said base line that is at least equal to said second radius (R2) and smaller than said first radius (RI), and said first propeller being arranged to be kept stationary in a specific angular position whilst said second propeller is rotatable by said engine , wherein said first propeller has a plurality of blades and said second propeller has a plurality of blades , at least the tips of the blades of said first propeller protrude below said baseline during rotation of said first propeller and wherein said specific angular position is an inactive position wherein the blades of said first propeller do not protrude below said baseline .