mhurhangee/ep-ind-claims huggingface dataset:
Method for open-loop and closed-loop control of a illumination system with a primary luminaire and at least one secondary luminaire for an interior space, having the following steps: - measuring a brightness at the location of the primary luminaire, - determining a primary day light percentage for the primary luminaire, and characterised by the following steps: - determining a secondary day light percentage for at least one secondary luminaire based on the primary day light percentage, - wherein the primary day light percentage and the secondary day light percentage are not themselves generated by the illumination system, - determining a secondary manipulated variable for at least one secondary luminaire based on the secondary day light percentage and a setpoint value for this secondary luminaire. - measuring a brightness at the location of the primary luminaire, - determining a primary day light percentage for the primary luminaire, - determining a secondary day light percentage for at least one secondary luminaire based on the primary day light percentage, - wherein the primary day light percentage and the secondary day light percentage are not themselves generated by the illumination system, - determining a secondary manipulated variable for at least one secondary luminaire based on the secondary day light percentage and a setpoint value for this secondary luminaire.
Method for supporting a reputation mechanism in a network, wherein said network includes one or more domains (Domain A, Domain B, Domain C), with one or more users being connected to said domains, one or more Identity Providers (IdP) that manage identity information on behalf of said users, and at least one entity that functions as Web Service Consumer (WSC 1, WSC 2) for said users, characterized in that, in case a user requests a Web Service Consumer of one of said domains for a web service provided by a Web Service Provider, in particular of another of said domains, said requested Web Service Consumer requests its known Identity Providers regarding a recommendation of said Web Service Provider, wherein said Identity Providers function as recommendation aggregators by collecting reputation assessments of said Web Service Provider from entities being registered on said Identity Providers, in particular users and/or Web Service Consumers, wherein said Identity Providers return an aggregated recommendation to said requested Web Service Consumer that, on the basis of said aggregated recommendation, determines a trust assessment about said Web Service Provider, and wherein a privacy homomorphism is employed for providing an encrypted exchange of recommendation related information between said Identity Providers and said requested Web Service Consumer.
Method of inspecting parts of a vitrified sample embedded in amorphous ice with a fluorescence microscope, at least part of the sample supported by a supporting carbon film, the fluorescence microscope illuminating the sample with excitation light to generate fluorescence or phosphorescence, said sample vulnerable to crystallization of the amorphous ice, characterized in that • the supporting carbon film shows holes or thickness variations resulting in position dependent absorbance of the excitation light, resulting in parts with a high absorption of the excitation light and parts with a low absorption of the excitation light, • the parts of the sample to be inspected are located over holes or parts of the supporting carbon film with a low absorption of the excitation light; and • the illumination with excitation light is a localized illumination, the localization such that the parts of the supporting carbon film with a high absorption of the excitation light and bordering the parts of the sample to be inspected are not illuminated with excitation light. • the supporting carbon film shows holes or thickness variations resulting in position dependent absorbance of the excitation light, resulting in parts with a high absorption of the excitation light and parts with a low absorption of the excitation light, • the parts of the sample to be inspected are located over holes or parts of the supporting carbon film with a low absorption of the excitation light; and • the illumination with excitation light is a localized illumination, the localization such that the parts of the supporting carbon film with a high absorption of the excitation light and bordering the parts of the sample to be inspected are not illuminated with excitation light.
Compounds of Formula: wherein: - R 1 and R 2 are, each independently, a C 1 -C 4 alkyl group; - R 3 is selected from ∘ a branched C 6 -C 20 alkyl group or a mixture of linear and branched C 6 -C 20 alkyl groups - R 1 and R 2 are, each independently, a C 1 -C 4 alkyl group; - R 3 is selected from ∘ a branched C 6 -C 20 alkyl group or a mixture of linear and branched C 6 -C 20 alkyl groups
A method for executing dynamic software language code including hashtable operations from hashtable string keys to hash values, comprising: compiling the dynamic software language code to map the hashtable string keys to hashtable integer keys; mapping the hashtable integer keys to hash values; storing the hash values mapped to the hashtable integer keys in a software hashtable maintained in a memory accessible by a software process; and loading a portion of the hash values mapped to the hashtable integer keys into a hardware hashtable maintained in a memory accessible by a processor via a first dedicated hardware instruction, wherein the dynamic software language is any language used to write programs that is: run on a managed runtime; interpreted at runtime; or compiled at runtime; wherein the method further comprises: receiving a request for a hash value; checking the hardware hashtable for the existence of the requested hash value via a second dedicated hardware instruction; if the requested hash value is in the hardware hashtable, returning the requested hash value; and if the requested hash value is not in the hardware hashtable, checking the software hashtable for the existence of the requested hash value and returning the requested hash value. compiling the dynamic software language code to map the hashtable string keys to hashtable integer keys; mapping the hashtable integer keys to hash values; storing the hash values mapped to the hashtable integer keys in a software hashtable maintained in a memory accessible by a software process; and loading a portion of the hash values mapped to the hashtable integer keys into a hardware hashtable maintained in a memory accessible by a processor via a first dedicated hardware instruction, wherein the dynamic software language is any language used to write programs that is: run on a managed runtime; interpreted at runtime; or compiled at runtime; wherein the method further comprises: receiving a request for a hash value; checking the hardware hashtable for the existence of the requested hash value via a second dedicated hardware instruction; if the requested hash value is in the hardware hashtable, returning the requested hash value; and if the requested hash value is not in the hardware hashtable, checking the software hashtable for the existence of the requested hash value and returning the requested hash value. receiving a request for a hash value; checking the hardware hashtable for the existence of the requested hash value via a second dedicated hardware instruction; if the requested hash value is in the hardware hashtable, returning the requested hash value; and if the requested hash value is not in the hardware hashtable, checking the software hashtable for the existence of the requested hash value and returning the requested hash value.
A composition for a non-aqueous secondary battery functional layer, the composition comprising: a polymer; inorganic particles; and a solvent, wherein: the polymer is a block copolymer including an aromatic vinyl monomer unit and an aliphatic conjugated diene monomer unit; and the polymer has a diblock content of 5 mass% or more and 85 mass% or less, wherein the diblock content is measured as disclosed in the description. the polymer is a block copolymer including an aromatic vinyl monomer unit and an aliphatic conjugated diene monomer unit; and the polymer has a diblock content of 5 mass% or more and 85 mass% or less,
A method for a load balancer agent to offload traffic to one or more edge data centers in a content delivery network, CDN, wherein the load balancer agent is included in a load balancer agent computer system at an edge data center in the CDN, the load balancer agent computer system including one or more processors and system memory, the method comprising: an act of the load balancer agent determining that traffic at the edge data center should be offloaded to the other edge data centers; an act of the load balancer agent determining a priority level according to an urgency of offloading traffic to other edge data centers for requesting the offloading of traffic to the other edge data centers; an act of the load balancer agent sending an offload request to each of the other edge data centers, each offload request indicating the determined priority level; an act of the load balancer agent receiving one or more replies from one or more of the other edge data centers, including one or more replies indicating that resources are available for use by the load balancer agent; an act of the load balancer agent sorting the one or more replies to identify at least one edge data center for offloading traffic; and an act of the load balancer agent offloading traffic to the at least one identified edge data center. an act of the load balancer agent determining that traffic at the edge data center should be offloaded to the other edge data centers; an act of the load balancer agent determining a priority level according to an urgency of offloading traffic to other edge data centers for requesting the offloading of traffic to the other edge data centers; an act of the load balancer agent sending an offload request to each of the other edge data centers, each offload request indicating the determined priority level; an act of the load balancer agent receiving one or more replies from one or more of the other edge data centers, including one or more replies indicating that resources are available for use by the load balancer agent; an act of the load balancer agent sorting the one or more replies to identify at least one edge data center for offloading traffic; and an act of the load balancer agent offloading traffic to the at least one identified edge data center.
A communication device (102; 702) comprising a housing (104; 704) which comprises a front and a surrounding electrically conductive frame (108; 710), the front comprising a dielectric cover, wherein the housing accommodates: a display covered by the cover; an electrically conductive chassis (114; 712); at least one substrate comprising at least one feeding element; along at least a part of the frame and between the display and the substrate the chassis and the frame are separated from one another by a dielectric-filled intermediate space; along the part of the frame and between the cover and the dielectric-filled intermediate space the display is separated from the frame by a gap; whereby the dielectric-filled intermediate space together with the frame and the chassis form at least one waveguide structure extending between the substrate and the gap. a display covered by the cover; an electrically conductive chassis (114; 712); at least one substrate comprising at least one feeding element; along at least a part of the frame and between the display and the substrate the chassis and the frame are separated from one another by a dielectric-filled intermediate space; along the part of the frame and between the cover and the dielectric-filled intermediate space the display is separated from the frame by a gap; whereby the dielectric-filled intermediate space together with the frame and the chassis form at least one waveguide structure extending between the substrate and the gap.
A pulse estimation device that is configured to estimate a pulse of a subject from information obtained without contact with the subject, the device comprising: an image input portion configured to receive time-sequential captured images including at least a portion of the subject as an object from a camera a region extractor that is configured to extract a skin-color region from each of the captured images; a pulse estimator that is configured to estimate the pulse of the subject based on the skin-color region of the captured images obtained by imaging with the camera, wherein the pulse estimator is configured to determine whether or not the estimated pulse is stable, characterized by a zoom commander that is configured to transmit a zoom commanc to the camera that has imaged the captured images or a user of the camera in order to adjust a size of the skin-color region; further characterized in that the pulse estimator is configured to estimate the pulse of the subject based on the captured images before the zoom command is transmitted, and in that, in a case where the pulse estimator determines that the pulse is not stable, the zoom commander is configured to transmit the zoom command, and the pulse estimator is configured to again estimate the pulse based on the skin-color region extracted from images received from the camera after the zoom command is transmitted. an image input portion configured to receive time-sequential captured images including at least a portion of the subject as an object from a camera a region extractor that is configured to extract a skin-color region from each of the captured images; a pulse estimator that is configured to estimate the pulse of the subject based on the skin-color region of the captured images obtained by imaging with the camera, wherein the pulse estimator is configured to determine whether or not the estimated pulse is stable, a zoom commander that is configured to transmit a zoom commanc to the camera that has imaged the captured images or a user of the camera in order to adjust a size of the skin-color region; further characterized in that the pulse estimator is configured to estimate the pulse of the subject based on the captured images before the zoom command is transmitted, and in that, in a case where the pulse estimator determines that the pulse is not stable, the zoom commander is configured to transmit the zoom command, and the pulse estimator is configured to again estimate the pulse based on the skin-color region extracted from images received from the camera after the zoom command is transmitted.
Pipe connector with a female receiving section for fastening in a first pipe end and with a male plug part for fastening in a second pipe end wherein the male plug part comprises a plug section and a fastening section for fastening in a second pipe end, wherein the plug section when the fastening section is fastened in the second pipe end protrudes beyond the second pipe end, wherein the receiving part is adapted for receiving the plug section, wherein the male plug part has an external thread with a thread turn and the female receiving part has an internal thread which can engage in each other in such a way that a maximum connection is position is achieved and in the maximum connection position a plug stop and a receiving stop come into contact with each other, and wherein the external thread is provided at a free end of the plug section, characterised in that the plug stop is produced in one piece out of the material of the plug section and is a turn filling which extends over the residual section of the thread turn and the receiving stop is thread run-in formed as an edge.
A memory interface, comprising: a plurality of transmitters (112... 112(n)), wherein each of the plurality of transmitters (112...112(n)) is configured to transmit data to a memory device over a respective one of a plurality of I/O channels; a plurality of receivers (115...115(n)), wherein each of the plurality of receivers (115...115(n)) is coupled to a respective one of the plurality of transmitters (112...112(n)), and is configured to receive data from the memory device over the respective one of the plurality of I/O channels; and a plurality of flip-flops (130...(130(n)) located in close proximity to the plurality of receivers (115...115(n)), wherein each of the flip-flops (130...130(n)) is configured to capture data from an output of a respective one of the plurality of receivers (115...115(n)); wherein the plurality of receivers (115...115(n)) and the plurality of flip-flops (130...130(n)) are all grouped together into a receiver subsystem located away from the plurality of transmitters (112...112(n)), wherein the plurality of transmitters (112...112(n)) span a first distance, the receiver subsystem spans a second distance, and the first distance is at least five times longer than the second distance. a plurality of transmitters (112... 112(n)), wherein each of the plurality of transmitters (112...112(n)) is configured to transmit data to a memory device over a respective one of a plurality of I/O channels; a plurality of receivers (115...115(n)), wherein each of the plurality of receivers (115...115(n)) is coupled to a respective one of the plurality of transmitters (112...112(n)), and is configured to receive data from the memory device over the respective one of the plurality of I/O channels; and a plurality of flip-flops (130...(130(n)) located in close proximity to the plurality of receivers (115...115(n)), wherein each of the flip-flops (130...130(n)) is configured to capture data from an output of a respective one of the plurality of receivers (115...115(n)); wherein the plurality of receivers (115...115(n)) and the plurality of flip-flops (130...130(n)) are all grouped together into a receiver subsystem located away from the plurality of transmitters (112...112(n)), wherein the plurality of transmitters (112...112(n)) span a first distance, the receiver subsystem spans a second distance, and the first distance is at least five times longer than the second distance.
A construction reinforcement connector including at least one pair of steel profile (1,2) sections located one above the other, wherein to at least one steel profile (1, 2), on each side, a U-shaped steel reinforcing bar is attached, wherein said reinforcement bars are an extension of this profile (1, 2) to both sides, and between these steel profiles (1, 2), at their ends, straight sections of the reinforcing bar are also attached and connect these two steel profiles (1, 2), characterised in that, two free ends of the U-shaped reinforcing bar comprising an extension of the steel profile (1,2) are attached to each end of the steel profile (1, 2), wherein in the working position of the connector, each of the U-shaped bars encompasses the spine of the steel profile with its ends.
A fused-ring heterocyclic compound represented by the general formula or a pharmaceutically acceptable salt thereof: [wherein n 1 represents 0 or 1; n 2 and n 3 are each 2; R 1 represents optionally substituted aryl, an optionally substituted aromatic heterocyclic group or an optionally substituted aliphatic heterocyclic group; R 2 represents a hydrogen atom or hydroxy; R 3 represents an optionally substituted aromatic heterocyclic group; X 1, X 2, X 3, and X 4 may be the same or different, and each represents N or CR 4 (wherein R 4 represents a hydrogen atom, lower alkyl, cyano, halogen, hydroxy, lower alkoxy, lower alkanoyl or lower alkylsulfonyl); Y 1 represents CH 2 or C(=O); Y 2 represents CH or N; and L represents CH 2 or NH]. [wherein n 1 represents 0 or 1; n 2 and n 3 are each 2; R 1 represents optionally substituted aryl, an optionally substituted aromatic heterocyclic group or an optionally substituted aliphatic heterocyclic group; R 2 represents a hydrogen atom or hydroxy; R 3 represents an optionally substituted aromatic heterocyclic group; X 1, X 2, X 3, and X 4 may be the same or different, and each represents N or CR 4 (wherein R 4 represents a hydrogen atom, lower alkyl, cyano, halogen, hydroxy, lower alkoxy, lower alkanoyl or lower alkylsulfonyl); Y 1 represents CH 2 or C(=O); Y 2 represents CH or N; and L represents CH 2 or NH].
A method of preparing an acid-gellable whey protein composition said method comprising the steps of: a) providing a demineralised solution comprising 1-15% (w/w) native, denaturable whey protein and having a pH in the range of 6-9, b) heat-treating the demineralised solution of step a) to a temperature of at least 68 degrees C for at most 2 hours, thereby obtaining a suspension comprising acid-gellable whey protein aggregates, c) cooling the suspension of step b) to a temperature of at most 30 degrees C, d) concentrating the suspension obtained in step c) to a concentration of acid-gellable whey protein aggregates of at least 4% (w/w), and if the cooled suspension of step c) already contains at least 4% (w/w) acid-gellable whey protein aggregates then step d) increases the concentration of the acid-gellable whey protein aggregates by at least 10% relative to the concentration of acid-gellable whey protein aggregates in the cooled suspension of step c), e) drying the concentrated suspension, wherein: - the temperature of the concentrated suspension of step d) is maintained at most at 30 degrees C until the concentrated suspension is subjected to the drying of step e), and - the duration between the concentration of step d) and the drying of step e) is at most 48 hours. a) providing a demineralised solution comprising 1-15% (w/w) native, denaturable whey protein and having a pH in the range of 6-9, b) heat-treating the demineralised solution of step a) to a temperature of at least 68 degrees C for at most 2 hours, thereby obtaining a suspension comprising acid-gellable whey protein aggregates, c) cooling the suspension of step b) to a temperature of at most 30 degrees C, d) concentrating the suspension obtained in step c) to a concentration of acid-gellable whey protein aggregates of at least 4% (w/w), and if the cooled suspension of step c) already contains at least 4% (w/w) acid-gellable whey protein aggregates then step d) increases the concentration of the acid-gellable whey protein aggregates by at least 10% relative to the concentration of acid-gellable whey protein aggregates in the cooled suspension of step c), e) drying the concentrated suspension, wherein: - the temperature of the concentrated suspension of step d) is maintained at most at 30 degrees C until the concentrated suspension is subjected to the drying of step e), and - the duration between the concentration of step d) and the drying of step e) is at most 48 hours. - the temperature of the concentrated suspension of step d) is maintained at most at 30 degrees C until the concentrated suspension is subjected to the drying of step e), and - the duration between the concentration of step d) and the drying of step e) is at most 48 hours.