mhurhangee/ep-ind-claims huggingface dataset:
Method for treating a base material in form of metallic powder made of super alloys based on Ni, Co, Fe or combinations thereof, or made of TiAl alloys which treated powder is used for additive manufacturing, especially for Selective Laser Melting of three-dimensional articles, characterized in that - in a first step the chemical composition of the base material is determined and compared to a calculated target chemical composition with detailed amount of each element of the powder, which is necessary for the following SLM manufacturing process, - the powder is stored and atomized only under dry and pure protective shielding gas atmosphere and - the powder is treated by a post gas phase treatment, thereby adding or removing specific elements into or from the powder particles and adjusting the content of the added or already existing specific elements to meet the calculated target amount of each element according to the first step, wherein the post gas phase treatment is with Fluor containing compounds, preferably PTFE, PFA or partly fluorised Silicones. - in a first step the chemical composition of the base material is determined and compared to a calculated target chemical composition with detailed amount of each element of the powder, which is necessary for the following SLM manufacturing process, - the powder is stored and atomized only under dry and pure protective shielding gas atmosphere and - the powder is treated by a post gas phase treatment, thereby adding or removing specific elements into or from the powder particles and adjusting the content of the added or already existing specific elements to meet the calculated target amount of each element according to the first step, wherein the post gas phase treatment is with Fluor containing compounds, preferably PTFE, PFA or partly fluorised Silicones.
A polyol premix composition for production of rigid polyurethane foams, comprising a polyol, water, a foaming agent, and an amine catalyst, and additionally an aliphatic dicarboxylic acid as reactivity- and storage stability-improving agent, wherein the foaming agent comprises a hydrohaloolefin, the aliphatic dicarboxylic acid is succinic acid, glutaric acid, or the mixture thereof and the aliphatic dicarboxylic acid is present in an amount of 1.5 - 2.5 equivalents of carboxyl groups with respect to the amino groups in the amine catalyst.
A method, comprising: receiving, by a microprocessor and from a computing device (102a, 102b) of a user, an attribute validation request comprising a set of attributes comprising a set of keys to be validated and an electronic address of or associated with the user of the computing device or the computing device; providing, by the microprocessor to the computing device, a blockchain address verification request comprising a challenge token; receiving, by the microprocessor from the computing device, a blockchain address verification reply comprising a signed version of the challenge token, the signed version being signed by a private key associated with the user of the computing device; successfully validating, by the microprocessor, that the signature of the signed version of the challenge token is associated with the user; in response to the successful validation of the signature, generating, by the microprocessor and using a crypto-variable, an obfuscated unique identity associated with the user or the computing device made up or derived from the set of attributes; transmitting the crypto-variable and/or obfuscated unique identity to the computing device of the user; and causing, by the microprocessor, a digital distributed secure ledger to be updated to include the obfuscated unique identity. receiving, by a microprocessor and from a computing device (102a, 102b) of a user, an attribute validation request comprising a set of attributes comprising a set of keys to be validated and an electronic address of or associated with the user of the computing device or the computing device; providing, by the microprocessor to the computing device, a blockchain address verification request comprising a challenge token; receiving, by the microprocessor from the computing device, a blockchain address verification reply comprising a signed version of the challenge token, the signed version being signed by a private key associated with the user of the computing device; successfully validating, by the microprocessor, that the signature of the signed version of the challenge token is associated with the user; in response to the successful validation of the signature, generating, by the microprocessor and using a crypto-variable, an obfuscated unique identity associated with the user or the computing device made up or derived from the set of attributes; transmitting the crypto-variable and/or obfuscated unique identity to the computing device of the user; and causing, by the microprocessor, a digital distributed secure ledger to be updated to include the obfuscated unique identity.
Battery pack for a handheld power tool, having an analogue resistance-based temperature sensor which is connected to a temperature measurement interface which is accessible from the outside, and having an evaluation unit which monitors the battery pack for a malfunction, characterized in that the evaluation unit is designed, when a malfunction of the battery pack is identified, to actively change a resistance, which can be determined at the temperature interface, in a pulsed manner in such a way that the resistance which can be determined temporarily corresponds to another temperature within the battery pack.
A bandwidth configuration method, comprising: configuring a first channel bandwidth, CB, of a first carrier; configuring a first subcarrier and a first transmission bandwidth configuration, TBC, corresponding to the first CB of the first carrier, wherein the first CB of the first carrier and the first TBC are associated with a first predefined relationship; configuring a first guard band and a second guard band in the first CB of the first carrier that are located on different sides of the first TBC, respectively, wherein the first and second guard bands are asymmetric to each other with respect to a center frequency of the first CB of the first carrier; and transmitting data using a frequency bandwidth according to the first TBC, wherein the first CB of the first carrier is greater than a preset bandwidth, wherein the first predefined relationship indicates a first percentage that the first TBC occupies the first CB of the first carrier, the first percentage greater than 90% and less than 100%, and wherein the first percentage monotonically increases as the first CB of the first carrier increases. configuring a first channel bandwidth, CB, of a first carrier; configuring a first subcarrier and a first transmission bandwidth configuration, TBC, corresponding to the first CB of the first carrier, wherein the first CB of the first carrier and the first TBC are associated with a first predefined relationship; configuring a first guard band and a second guard band in the first CB of the first carrier that are located on different sides of the first TBC, respectively, wherein the first and second guard bands are asymmetric to each other with respect to a center frequency of the first CB of the first carrier; and transmitting data using a frequency bandwidth according to the first TBC, wherein the first CB of the first carrier is greater than a preset bandwidth, wherein the first predefined relationship indicates a first percentage that the first TBC occupies the first CB of the first carrier, the first percentage greater than 90% and less than 100%, and wherein the first percentage monotonically increases as the first CB of the first carrier increases.
A method for processing a fault of a lock server in a distributed system, wherein the distributed system comprises at least three lock servers, and each lock server stores locally same lock server takeover relationship information; and the method comprises: receiving, by lock servers in the distributed system that are not faulty, a first notification message, wherein the first notification message carries information about a fault of a first lock server in the distributed system; determining, by a second lock server in the distributed system after receiving the first notification message, that the second lock server is a takeover lock server of the first lock server according to locally stored lock server takeover relationship information, wherein the takeover lock server enters a silent state in which the takeover lock server processes only a lock reclaim but does not process a locking request; determining, by a third lock server in the distributed system after receiving the first notification message, that the third lock server is not the takeover lock server of the first lock server according to locally stored lock server takeover relationship information; and allocating, by the third lock server when receiving a locking request, lock permission information according to the locking request. receiving, by lock servers in the distributed system that are not faulty, a first notification message, wherein the first notification message carries information about a fault of a first lock server in the distributed system; determining, by a second lock server in the distributed system after receiving the first notification message, that the second lock server is a takeover lock server of the first lock server according to locally stored lock server takeover relationship information, wherein the takeover lock server enters a silent state in which the takeover lock server processes only a lock reclaim but does not process a locking request; determining, by a third lock server in the distributed system after receiving the first notification message, that the third lock server is not the takeover lock server of the first lock server according to locally stored lock server takeover relationship information; and allocating, by the third lock server when receiving a locking request, lock permission information according to the locking request.
A hydration bottle comprising: a fluid container; and a lid assembly configured to be releasably engaged to the fluid container, the lid assembly having a first mouthpiece and a second mouthpiece independently accessible with respect to each other, wherein the lid assembly includes a pivotal mount having two legs (26a, 26b) extending from a support member to form a generally U-shaped configuration, the support member defining a passage, and wherein the passage of the support member of the pivotal mount is configured to receive the first mouthpiece. a fluid container; and a lid assembly configured to be releasably engaged to the fluid container, the lid assembly having a first mouthpiece and a second mouthpiece independently accessible with respect to each other, wherein the lid assembly includes a pivotal mount having two legs (26a, 26b) extending from a support member to form a generally U-shaped configuration, the support member defining a passage, and wherein the passage of the support member of the pivotal mount is configured to receive the first mouthpiece.
A vehicle-based method of determining whether a radar backscatter return of a target object (24A, 24B) originates from a single scattering center, said vehicle including a radar system including a radar transmit element, adapted to send a radar signal towards said target object (24A, 24B), and an antenna receive array (16, 100) comprising a plurality of N radar receive channels (16A, 16B, A, B, C), and adapted to receive radar signals reflected from said target object (24A, 24B), said method comprising: a) transmitting a radar signal from said radar transmit element to said target object (24A, 24B); b) receiving the reflected signal of the signal transmitted in step a) from the target object (24A, 24B) at said plurality of N radar receive channels (16A, 16B, A, B, C); characterized by c) processing, for each radar receive channel (16A, 16B, A, B, C), the received signal (30A, 30B) to provide amplitude or power data in the frequency domain; d) with respect to the data in step c), for each of the N radar receive channels (16A, 16B, A, B, C), determining the frequency or frequency bin in the frequency domain which correlates to the maximum amplitude or peak power in the respective radar receive channel; e) determining the degree of variability of said frequency or frequency bin, correlating to the respective maximum amplitude or peak power, between the N radar receive channels (16A, 16B, A, B, C); f) determining if the degree of variability from step e) is above or below a threshold, and determining either that the target object (24A, 24B) is a single scattering center if the degree of variability is below said threshold or that the target object (24A, 24B) is not a single scattering center if the degree of variability is above said threshold. a) transmitting a radar signal from said radar transmit element to said target object (24A, 24B); b) receiving the reflected signal of the signal transmitted in step a) from the target object (24A, 24B) at said plurality of N radar receive channels (16A, 16B, A, B, C); characterized by c) processing, for each radar receive channel (16A, 16B, A, B, C), the received signal (30A, 30B) to provide amplitude or power data in the frequency domain; d) with respect to the data in step c), for each of the N radar receive channels (16A, 16B, A, B, C), determining the frequency or frequency bin in the frequency domain which correlates to the maximum amplitude or peak power in the respective radar receive channel; e) determining the degree of variability of said frequency or frequency bin, correlating to the respective maximum amplitude or peak power, between the N radar receive channels (16A, 16B, A, B, C); f) determining if the degree of variability from step e) is above or below a threshold, and determining either that the target object (24A, 24B) is a single scattering center if the degree of variability is below said threshold or that the target object (24A, 24B) is not a single scattering center if the degree of variability is above said threshold.
A nozzle hanger for hanging a filling nozzle, of which one end has a filling pipe for filling a hydrogen gas and another end has a grip section comprising: an upper part for holding the filling pipe of the filling nozzle; a lower part facing the upper part and holding the grip section of the filling nozzle; and an intermediate part for connecting the upper part and the lower part, wherein said lower part includes a fixed lock section for locking the grip section of the filling nozzle in a fixed state, and said upper part includes a recessed section for making easier to insert the filling pipe of the filling nozzle tilted into a space in front of the intermediate part and a movable lock section for contacting the filling pipe and locking the filling pipe in a movable state. an upper part for holding the filling pipe of the filling nozzle; a lower part facing the upper part and holding the grip section of the filling nozzle; and an intermediate part for connecting the upper part and the lower part, wherein said lower part includes a fixed lock section for locking the grip section of the filling nozzle in a fixed state, and said upper part includes a recessed section for making easier to insert the filling pipe of the filling nozzle tilted into a space in front of the intermediate part and a movable lock section for contacting the filling pipe and locking the filling pipe in a movable state.
A method for simulating optical lenses in augmented reality using a mobile apparatus including at least one input peripheral (11 a) and one display peripheral, said method including at least, one capture phase including at least the following step: a1) Capturing at least one image of a user's environment using at least one image capture element; one data acquisition phase; being characterised in that it includes at least the following step: b1) Determining the distance between the mobile apparatus and at least one object in the environment using at least one measurement unit; and one simulation phase implemented by at least one processing unit of the mobile apparatus, including at least the following step: c1) Applying a virtual lens reproducing the optical effect of an actual determined optical-correction lens, on said at least one image of the environment, depending on the data acquired during the data acquisition phase and displaying the simulation on a display peripheral; one capture phase including at least the following step: a1) Capturing at least one image of a user's environment using at least one image capture element; one data acquisition phase; being characterised in that it includes at least the following step: b1) Determining the distance between the mobile apparatus and at least one object in the environment using at least one measurement unit; and one simulation phase implemented by at least one processing unit of the mobile apparatus, including at least the following step: c1) Applying a virtual lens reproducing the optical effect of an actual determined optical-correction lens, on said at least one image of the environment, depending on the data acquired during the data acquisition phase and displaying the simulation on a display peripheral;
A refrigerator comprising a fresh food compartment wherein foodstuffs to be cooled are placed, a freezing compartment wherein foodstuffs to be frozen are placed and - a cabinet disposed into the freezing compartment, - a lid that is situated on the front side of the cabinet and that has an open position wherein access into the cabinet is provided and a closed position whereto the lid is brought by being rotated from the open position, wherein the front side of the cabinet is closed, - at least one grating that is arranged on the freezing compartment wall and that blows cold air into the cabinet, and - at least one opening that is arranged on the cabinet rear wall and that enables the air delivered through the grating to be delivered into the cabinet characterized by - a locking means that is situated on the lid, that extends from lid towards the cabinet, and that enables the lid situated on the cabinet front wall to be locked with the cabinet in the closed position and that assures that a gap allowing air flow remains between the lid and the cabinet front wall in the closed position. - a cabinet disposed into the freezing compartment, - a lid that is situated on the front side of the cabinet and that has an open position wherein access into the cabinet is provided and a closed position whereto the lid is brought by being rotated from the open position, wherein the front side of the cabinet is closed, - at least one grating that is arranged on the freezing compartment wall and that blows cold air into the cabinet, and - at least one opening that is arranged on the cabinet rear wall and that enables the air delivered through the grating to be delivered into the cabinet - a locking means that is situated on the lid, that extends from lid towards the cabinet, and that enables the lid situated on the cabinet front wall to be locked with the cabinet in the closed position and that assures that a gap allowing air flow remains between the lid and the cabinet front wall in the closed position.
A backlight unit comprising: a printed circuit board; a plurality of LED light sources formed on the PCB; a resin layer on the PCB, to embed the LED light sources therein, and diffusing and guiding light forwards; and a diffusion plate provided above the resin layer, comprising an optical pattern, said diffusion plate provided to shield light emitted from the LED light sources; wherein the optical pattern is formed on a surface of the diffusion plate, characterized in that the optical pattern comprises a first pattern that is a diffusion pattern for diffusing light formed using light shielding ink, the light shielding ink containing at least one substance selected from the group consisting of TiO 2, CaCO 3, BaSO 4, Al 2 O 3, and silicon, and wherein the optical pattern further comprises: a second pattern comprising a shielding pattern, and formed by overlapping printing on an upper or lower portion of the first pattern that is a diffusion pattern for diffusing or shielding some of emitted light, thereby shielding or reflecting the emitted light; and a third pattern comprising a diffusion pattern to cover the first and second patterns. a printed circuit board; a plurality of LED light sources formed on the PCB; a resin layer on the PCB, to embed the LED light sources therein, and diffusing and guiding light forwards; and a diffusion plate provided above the resin layer, comprising an optical pattern, said diffusion plate provided to shield light emitted from the LED light sources; wherein the optical pattern is formed on a surface of the diffusion plate, characterized in that the optical pattern comprises a first pattern that is a diffusion pattern for diffusing light formed using light shielding ink, the light shielding ink containing at least one substance selected from the group consisting of TiO 2, CaCO 3, BaSO 4, Al 2 O 3, and silicon, and wherein the optical pattern further comprises: a second pattern comprising a shielding pattern, and formed by overlapping printing on an upper or lower portion of the first pattern that is a diffusion pattern for diffusing or shielding some of emitted light, thereby shielding or reflecting the emitted light; and a third pattern comprising a diffusion pattern to cover the first and second patterns. a second pattern comprising a shielding pattern, and formed by overlapping printing on an upper or lower portion of the first pattern that is a diffusion pattern for diffusing or shielding some of emitted light, thereby shielding or reflecting the emitted light; and a third pattern comprising a diffusion pattern to cover the first and second patterns.
Medical device for extracorporeal blood treatment with a lid apparatus, comprising a lid which is hinged by means of at least one pivot joint (40a, 51) at the medical device, wherein the pivot joint (40a, 51) comprises a first joint section which is preferably positioned at the lid and a second joint section which is preferably connectable to the medical device, wherein said joint sections are pivotable with respect to each other about a pivot axis at least between a first position, in which the lid is open, and a second position, in which the lid covers at least a part of the medical device, and wherein also said joint sections are releasably lockable in at least one pivoting position, characterized in that the lid apparatus comprises at least one pair of contact surfaces which, perpendicular to the axis of rotation, are resiliently biased against each other, wherein at least one of the contact surfaces comprises a rolling and latching geometry which is configured such that the lid latches in the second position, and the pivoting movability of the pivot joint is only released when the resilient biasing force is overcome, and a relative distance between the pivot axis and the medical device is different in the first position and in the second position.
A combination comprising an anti-progastrin (anti-hPG) monoclonal antibody and an immune checkpoint inhibitor, wherein said anti-hPG antibody comprises a heavy chain comprising CDR-H1, CDR-H2 and CDR-H3 of amino acid sequences SEQ ID N°28, 29 and 30, respectively, and a light chain comprising CDR-L1, CDR-L2 and CDR-L3 of amino acid sequences SEQ ID N°31, 32 and 33, respectively, and wherein said immune checkpoint inhibitor is an anti-PD1 antibody.