mhurhangee/patent-ind-claim-en huggingface dataset:
A method of calibrating an infrared (IR) camera comprising a pixel array housed in a housing , the pixel array having an image sensor and one or more parasitic heat sensing pixels arranged to receive infrared light from different portions of an interior surface of the housing , the method comprising: receiving, by a processing device , one or more readings (P R ) from each of said parasitic heat sensing pixels and from each pixel of said pixel array; and generating, by the processing device based on said one or more readings, one or more conversion matrices ( M -1 Clum and M Cpix ) for converting said readings (P R ) from said parasitic heat sensing pixels into pixel correction values for performing 2D signal correction of signals captured by the image sensor, wherein generating the one or more conversion matrices ( M -1 Clum and M Cpix ) comprises: determining by the processing device, for each image pixel of the image sensor and for each of said parasitic heat sensing pixels based on an assumption of the responsivity of each pixel, a relative transfer function corresponding to an etendue ( T i ( x,y ) ) of each pixel with respect to each of a plurality of zones of said interior surface, wherein the one or more conversion matrices ( M -1 Clum and M Cpix ) are determined based on the responsivity ( Resp ( x , y )) of each pixel and the etendue ( T i ( x,y ) ) of each pixel with respect to each of the plurality of zones of said interior surface. receiving, by a processing device , one or more readings (P R ) from each of said parasitic heat sensing pixels and from each pixel of said pixel array; and generating, by the processing device based on said one or more readings, one or more conversion matrices ( M -1 Clum and M Cpix ) for converting said readings (P R ) from said parasitic heat sensing pixels into pixel correction values for performing 2D signal correction of signals captured by the image sensor, wherein generating the one or more conversion matrices ( M -1 Clum and M Cpix ) comprises: determining by the processing device, for each image pixel of the image sensor and for each of said parasitic heat sensing pixels based on an assumption of the responsivity of each pixel, a relative transfer function corresponding to an etendue ( T i ( x,y ) ) of each pixel with respect to each of a plurality of zones of said interior surface, wherein the one or more conversion matrices ( M -1 Clum and M Cpix ) are determined based on the responsivity ( Resp ( x , y )) of each pixel and the etendue ( T i ( x,y ) ) of each pixel with respect to each of the plurality of zones of said interior surface.
A unit comprising a stent to be positioned in the bifurcation/branching of a blood vessel , wherein the stent comprises of a plurality of meshes and has a distal and a proximal end , and a removable retaining element, characterized in that said retaining element is a guidewire, the distal end of said guidewire being guided from outside of the stent through two oppositely arranged meshes selected from a plurality of meshes situated at the proximal end of the stent and wherein at the target position of the stent, the retaining element spreads out, and assumes a position in front of the opening of the vessel branch to form a locking bar in such a way that the proximal end of the stent is placed precisely at the position where the vessel is branching off.
Valve system having at least two compressed air valves for an object which can be pressurized/inflated by means of compressed air, having at least two air chambers , in particular a mattress , which are independent of one another, wherein at least one compressed-air valve can be associated with each air chamber , wherein the at least one compressed-air valve is arranged on a first surface of a printed circuit board , and a second surface of the printed circuit board opposite the first surface is designed as a sealing surface for at least one compressed-air inlet , wherein a substantially plate-shaped distributing element having a first surface is provided, wherein a connection for the supply of compressed air is provided at the distributing element which is in fluid connection with the at least one compressed-air inlet , wherein the at least one compressed-air inlet is arranged on the first surface of the distributing element , wherein the at least one compressed-air inlet is in fluid connection with the at least one compressed-air valve via at least one supply opening in the printed circuit board , characterised in that at least one outlet bore is provided in the printed circuit board , wherein the at least one outlet bore connects the at least one compressed-air valve in a fluid-tight manner to at least one outlet conduit arranged within the distributing element via at least one outlet opening arranged in the distributing element , and wherein the at least one outlet conduit arranged within the distributing element can be connected to the object that can be pressurized/inflated by means of compressed air.
A method, performed in a wireless device , for enabling a secure provisioning of a credential from a server , the wireless device storing a device public key and a device private key, the server storing the device public key, wherein the device public key has not been made public by the wireless device , by an enterprise or by any other possible holder of the device public key, the method comprising: - receiving (S1) an authentication request from the server upon the wireless device starting up for the first time within an enterprise network; - generating (S2) a device authentication and integrity, DAI, indicator, wherein the DAI indicator comprises a digital signature computed based on the device private key, and/or a message authentication code computed based on the device public key; - transmitting (S3) an authentication response to the server , the authentication response comprising the DAI indicator; - receiving (S4) a credential message from the server , the credential message comprising a server authentication and integrity, SAI, indicator; wherein the SAI indicator provides a proof of the server's possession of the device public key; and - verifying (S5) the received credential message using the device public key. - receiving (S1) an authentication request from the server upon the wireless device starting up for the first time within an enterprise network; - generating (S2) a device authentication and integrity, DAI, indicator, wherein the DAI indicator comprises a digital signature computed based on the device private key, and/or a message authentication code computed based on the device public key; - transmitting (S3) an authentication response to the server , the authentication response comprising the DAI indicator; - receiving (S4) a credential message from the server , the credential message comprising a server authentication and integrity, SAI, indicator; wherein the SAI indicator provides a proof of the server's possession of the device public key; and - verifying (S5) the received credential message using the device public key.
Method for controlling a clearing process in a vacuum cleaning device, wherein the vacuum cleaning device comprises at least one filter, which is cleared regularly, having the following method steps: a) stipulating a first reference value, which defines a pressure range, b) obtaining a differential pressure value, which describes a current state of the filter, c) determining whether the differential pressure value is in the pressure range defined in a), characterized by the further method step: d) stipulating a second reference value, either by retaining the first reference value or replacing the first reference value by the differential pressure value obtained in b), wherein the second reference value is specified in a manner dependent on whether the differential pressure value obtained in b) is in the pressure range defined in a). a) stipulating a first reference value, which defines a pressure range, b) obtaining a differential pressure value, which describes a current state of the filter, c) determining whether the differential pressure value is in the pressure range defined in a),
A dowel for fastening fitments of articles of furniture comprising - a dowel sleeve , - at least one fastening claw separate from the dowel sleeve , and - a spreading element which is moveable axially in the dowel sleeve for radially spreading the at least one fastening claw and the dowel sleeve , wherein the dowel sleeve - preferably in the inside - has a guide which laterally guides a holding portion of the fastening claw and there are provided latching means which hold the fastening claw which is inserted into the guide - preferably with play - on the dowel sleeve , characterised in that the latching means have a latching pin protruding inwardly from the dowel sleeve as well as a corresponding latching opening in the holding portion of the fastening claw , into which the latching pin engages when the fastening claw is inserted into the dowel sleeve - preferably with play. - a dowel sleeve , - at least one fastening claw separate from the dowel sleeve , and - a spreading element which is moveable axially in the dowel sleeve for radially spreading the at least one fastening claw and the dowel sleeve ,
An access control system for providing visually aided access to a building location having a locking device, the access control system comprising: a wireless device of a user comprising credentials including a virtual key to unlock the locking device; a smart lighting system; the locking device; and a building management system in communication with the wireless device , the smart lighting system and the locking device , the building management system being configured to: assign a lighting attribute to the user; and communicate the lighting attribute to the wireless device; wherein the wireless device is configured to display the lighting attribute; wherein the smart lighting system is configured to: receive, from the building management system, the lighting attribute; and display the lighting attribute to guide the user to the building location; and wherein the building management system is configured to communicate with at least the wireless device and the smart lighting system to deactivate the lighting attribute such that the lighting attribute is no longer visually displayed when the locking device has been unlocked by the user with valid credentials. a wireless device of a user comprising credentials including a virtual key to unlock the locking device; a smart lighting system; the locking device; and a building management system in communication with the wireless device , the smart lighting system and the locking device , the building management system being configured to: assign a lighting attribute to the user; and communicate the lighting attribute to the wireless device; wherein the wireless device is configured to display the lighting attribute; wherein the smart lighting system is configured to: receive, from the building management system, the lighting attribute; and display the lighting attribute to guide the user to the building location; and wherein the building management system is configured to communicate with at least the wireless device and the smart lighting system to deactivate the lighting attribute such that the lighting attribute is no longer visually displayed when the locking device has been unlocked by the user with valid credentials. assign a lighting attribute to the user; and communicate the lighting attribute to the wireless device; wherein the wireless device is configured to display the lighting attribute; wherein the smart lighting system is configured to: receive, from the building management system, the lighting attribute; and display the lighting attribute to guide the user to the building location; receive, from the building management system, the lighting attribute; and display the lighting attribute to guide the user to the building location; and wherein the building management system is configured to communicate with at least the wireless device and the smart lighting system to deactivate the lighting attribute such that the lighting attribute is no longer visually displayed when the locking device has been unlocked by the user with valid credentials.
An aircraft comprising: an aircraft body containing an aircraft cabin, the aircraft cabin having a longitudinal length between a front of the cabin and a rear of the cabin , and the aircraft cabin having a lateral width between opposite first and second interior sidewalls of the aircraft body ; a floor surface in the aircraft cabin; a lavatory in the aircraft cabin; a stowage space in the aircraft cabin; an internal wall in the aircraft cabin laterally between the lavatory and the stowage space , the internal wall having a lower section , an intermediate section and an upper section that are all interconnected, the lower section extending vertically upwardly from the floor surface between a lower area of the lavatory and a lower area of the stowage space to the intermediate section , the intermediate section extending horizontally over the lower area of the stowage space from the lower section to the upper section , and the upper section extending vertically upwardly from the intermediate section between an upper area of the lavatory and an upper area of the stowage space to a roof of the cabin, wherein a lateral width dimension of the lavatory above the intermediate section is larger than a largest lateral width dimension of the lavatory below the intermediate section ; a front wall in the aircraft cabin, the front wall extending laterally between the internal wall and the first interior sidewall of the aircraft body; and a doorway through the front wall into the lavatory . an aircraft body containing an aircraft cabin, the aircraft cabin having a longitudinal length between a front of the cabin and a rear of the cabin , and the aircraft cabin having a lateral width between opposite first and second interior sidewalls of the aircraft body ; a floor surface in the aircraft cabin; a lavatory in the aircraft cabin; a stowage space in the aircraft cabin; an internal wall in the aircraft cabin laterally between the lavatory and the stowage space , the internal wall having a lower section , an intermediate section and an upper section that are all interconnected, the lower section extending vertically upwardly from the floor surface between a lower area of the lavatory and a lower area of the stowage space to the intermediate section , the intermediate section extending horizontally over the lower area of the stowage space from the lower section to the upper section , and the upper section extending vertically upwardly from the intermediate section between an upper area of the lavatory and an upper area of the stowage space to a roof of the cabin, wherein a lateral width dimension of the lavatory above the intermediate section is larger than a largest lateral width dimension of the lavatory below the intermediate section ; a front wall in the aircraft cabin, the front wall extending laterally between the internal wall and the first interior sidewall of the aircraft body; and a doorway through the front wall into the lavatory .
A crystal form of N-[2,4-bis(1,1-dimethylethyl)-5-hydroxyphenyl]-1,4-dihydro-4-oxoquinoline-3-carboxamide, characterized by : (a) an X-ray powder diffraction pattern having one or more peaks (2θ) at 6.2 ± 0.2, 7.6 ± 0.2, 12.3 ± 0.2, and 18.0 ± 0.2 degrees obtained using Cu K alpha radiation; and/or (b) a monoclinic crystal system, a P2 1 space grouping, and the following unit cell dimensions: a = 11.8011 Å α= 90° b = 5.9819 Å β= 105.110 ° c = 14.7974 Å γ = 90°. (a) an X-ray powder diffraction pattern having one or more peaks (2θ) at 6.2 ± 0.2, 7.6 ± 0.2, 12.3 ± 0.2, and 18.0 ± 0.2 degrees obtained using Cu K alpha radiation; and/or (b) a monoclinic crystal system, a P2 1 space grouping, and the following unit cell dimensions: a = 11.8011 Å α= 90° b = 5.9819 Å β= 105.110 ° c = 14.7974 Å γ = 90°.
A method for automatically milking and feeding a group of dairy animals (A, B) by means of a robot milking device which is provided in an area in which the dairy animals can move freely, and which comprises: - a milking site for receiving a dairy animal, - an animal identification device for determining an animal identity of said dairy animal, - robot milking means for fully automatically extracting milk from said dairy animal during a milking, - a feeding device for providing feed to said dairy animal at the milking site during said milking on the basis of a feed allowance for said dairy animal, and - a controller which is configured for controlling the robot milking system and updating the feed allowance per dairy animal, wherein the method comprises the following steps: - selecting a future time period (T), - determining a free capacity (C) of the robot milking system as an expectation value for the total time during said future time period (T) that the milking system will not be occupied by a dairy animal, - determining a sub-group (A) of the group of dairy animals for which the controller may continue to provide feed after said milking, - milking, and feeding during the milking, the dairy animals that visit the milking system, and - additionally feeding a dairy animal from the sub-group (A) depending on the determined free capacity (C), if said dairy animal still has a feed allowance after milking. - a milking site for receiving a dairy animal, - an animal identification device for determining an animal identity of said dairy animal, - robot milking means for fully automatically extracting milk from said dairy animal during a milking, - a feeding device for providing feed to said dairy animal at the milking site during said milking on the basis of a feed allowance for said dairy animal, and - a controller which is configured for controlling the robot milking system and updating the feed allowance per dairy animal, - selecting a future time period (T), - determining a free capacity (C) of the robot milking system as an expectation value for the total time during said future time period (T) that the milking system will not be occupied by a dairy animal, - determining a sub-group (A) of the group of dairy animals for which the controller may continue to provide feed after said milking, - milking, and feeding during the milking, the dairy animals that visit the milking system, and - additionally feeding a dairy animal from the sub-group (A) depending on the determined free capacity (C), if said dairy animal still has a feed allowance after milking.
Installation for producing cement clinker, having (a) a preheater for preheating raw cement material to form preheated raw cement meal, (b) a calciner for calcining the preheated raw cement meal to form calcined raw cement meal, (c) a kiln for final burning of the calcined raw cement meal to form cement clinker, wherein kiln offgases are produced, (d) a cooler for cooling the cement clinker, and (e) a bypass system having (e1) a bypass line connected between the kiln and the calciner and serving for branching off, as bypass gas, a portion of the kiln offgases flowing from the kiln to the calciner , (e2) a cooling device for cooling the bypass gas, and (e3) a dust separator for separating dust contained in the bypass gas, which has an inlet for the supply of the cooled bypass gas, has at least one discharge opening for the removal of the separated dust, and has an outlet opening for a dedusted bypass gas, characterized in that (f) provision is made between the outlet opening of the dust separator and the calciner of a recirculation line for the dedusted bypass gas, wherein the recirculation line opens into the calciner and/or into a tertiary air line arranged between the cooler and the calciner and/or into a region between the kiln and the calciner . (a) a preheater for preheating raw cement material to form preheated raw cement meal, (b) a calciner for calcining the preheated raw cement meal to form calcined raw cement meal, (c) a kiln for final burning of the calcined raw cement meal to form cement clinker, wherein kiln offgases are produced, (d) a cooler for cooling the cement clinker, and (e) a bypass system having (e1) a bypass line connected between the kiln and the calciner and serving for branching off, as bypass gas, a portion of the kiln offgases flowing from the kiln to the calciner , (e2) a cooling device for cooling the bypass gas, and (e3) a dust separator for separating dust contained in the bypass gas, which has an inlet for the supply of the cooled bypass gas, has at least one discharge opening for the removal of the separated dust, and has an outlet opening for a dedusted bypass gas, characterized in that (e1) a bypass line connected between the kiln and the calciner and serving for branching off, as bypass gas, a portion of the kiln offgases flowing from the kiln to the calciner , (e2) a cooling device for cooling the bypass gas, and (e3) a dust separator for separating dust contained in the bypass gas, which has an inlet for the supply of the cooled bypass gas, has at least one discharge opening for the removal of the separated dust, and has an outlet opening for a dedusted bypass gas, (f) provision is made between the outlet opening of the dust separator and the calciner of a recirculation line for the dedusted bypass gas, wherein the recirculation line opens into the calciner and/or into a tertiary air line arranged between the cooler and the calciner and/or into a region between the kiln and the calciner .
A method for manufacturing an article comprising: providing a powder feedstock of silicon carbide; selectively depositing a binder onto successive layers of the powder feedstock to produce a dimensionally stable object of greater than 30% by weight of silicon carbide; positioning the object within a chemical vapor infiltration, CVI, reactor and elevating the temperature therein, thereby debinding the object; and introducing within the CVI reactor a precursor gas including silicon and a hydrocarbon while at an elevated temperature, such that a breakdown of the precursor gas at the elevated temperature causes silicon carbide to infiltrate the object and seal the object with a densified outer layer, the object including a substantially pure silicon carbide microstructure and high heat resistance with a density of greater than 85% by weight of silicon carbide. providing a powder feedstock of silicon carbide; selectively depositing a binder onto successive layers of the powder feedstock to produce a dimensionally stable object of greater than 30% by weight of silicon carbide; positioning the object within a chemical vapor infiltration, CVI, reactor and elevating the temperature therein, thereby debinding the object; and introducing within the CVI reactor a precursor gas including silicon and a hydrocarbon while at an elevated temperature, such that a breakdown of the precursor gas at the elevated temperature causes silicon carbide to infiltrate the object and seal the object with a densified outer layer, the object including a substantially pure silicon carbide microstructure and high heat resistance with a density of greater than 85% by weight of silicon carbide.