mhurhangee/patent-ind-claim-en huggingface dataset:
A method for communication of an object with a server of a network of connected objects to signal that a clone potentially masquerades as the object in the network, the method comprising the following steps implemented by the object : - transmitting to the server a join request for joining the object to the network of connected objects, - after the transmission of the join request, detecting a rejection or non-consideration of a reference message transmitted by the object to the server , - in response to the detection, transmitting to the server an alert message indicating the rejection or non-consideration. - transmitting to the server a join request for joining the object to the network of connected objects, - after the transmission of the join request, detecting a rejection or non-consideration of a reference message transmitted by the object to the server , - in response to the detection, transmitting to the server an alert message indicating the rejection or non-consideration.
A highly reflective mirror for use in the wavelength range of 0.4μm to 15μm, the mirror comprising: a fused silica substrate; a barrier layer on top the substrate, the barrier layer material having a thickness in the range of 100nm to 50μm, the barrier layer selected from the group consisting of Si 3 N 4 and CrN; a first Al 2 O 3 interface layer on top of the barrier layer, the first Al 2 O 3 interface layer having a thickness in the range of 2.5nm to 25nm; a Ag reflective layer on top of the first interface layer, the Ag reflective layer having a thickness in the range of 80nm to 350nm; a second Al 2 O 3 interface layer on top of the Ag reflective layer; and on top of the second Al 2 O 3 interface layer, at least one tuning layer selected from the group consisting of (i) YbF 3 plus Nb 2 O 5 and (ii) Yb x F y O z , having a thickness in the range of 75nm to 300nm and aYbF 3 protective layer having a thickness in the range of 60nm to 200nm on top of the tuning layer; the mirror having a reflectivity of at least 96% over the wavelength ranges of 0.4μm to 1.8μm and 3μm to 15μm at an AOI 45° . a fused silica substrate; a barrier layer on top the substrate, the barrier layer material having a thickness in the range of 100nm to 50μm, the barrier layer selected from the group consisting of Si 3 N 4 and CrN; a first Al 2 O 3 interface layer on top of the barrier layer, the first Al 2 O 3 interface layer having a thickness in the range of 2.5nm to 25nm; a Ag reflective layer on top of the first interface layer, the Ag reflective layer having a thickness in the range of 80nm to 350nm; a second Al 2 O 3 interface layer on top of the Ag reflective layer; and on top of the second Al 2 O 3 interface layer, at least one tuning layer selected from the group consisting of (i) YbF 3 plus Nb 2 O 5 and (ii) Yb x F y O z , having a thickness in the range of 75nm to 300nm and aYbF 3 protective layer having a thickness in the range of 60nm to 200nm on top of the tuning layer; the mirror having a reflectivity of at least 96% over the wavelength ranges of 0.4μm to 1.8μm and 3μm to 15μm at an AOI 45° .
An inspection method comprising: acquiring an X-ray radiation image of goods being inspected; processing the radiation image to obtain a region of interest, ROI, inspecting the ROI using a liquor goods inspection model trained with liquor goods sample images to determine if the ROI of the radiation image contains liquor goods, the inspection method being characterized in that it further comprises steps of weak labeling scanned images where liquor goods are contained in an on-line process; training the liquor goods inspection model by way of using the weak labeled scanned images where liquor goods are contained and using scanned images of goods that are similar to liquors but are not liquors in an off-line process; wherein the step of processing the radiation image comprises: detecting air regions and impenetrable regions in the radiation image; excluding the air regions and the impenetrable regions from the ROIs. acquiring an X-ray radiation image of goods being inspected; processing the radiation image to obtain a region of interest, ROI, inspecting the ROI using a liquor goods inspection model trained with liquor goods sample images to determine if the ROI of the radiation image contains liquor goods, the inspection method being characterized in that it further comprises steps of weak labeling scanned images where liquor goods are contained in an on-line process; training the liquor goods inspection model by way of using the weak labeled scanned images where liquor goods are contained and using scanned images of goods that are similar to liquors but are not liquors in an off-line process; wherein the step of processing the radiation image comprises: detecting air regions and impenetrable regions in the radiation image; excluding the air regions and the impenetrable regions from the ROIs. weak labeling scanned images where liquor goods are contained in an on-line process; training the liquor goods inspection model by way of using the weak labeled scanned images where liquor goods are contained and using scanned images of goods that are similar to liquors but are not liquors in an off-line process; wherein the step of processing the radiation image comprises: detecting air regions and impenetrable regions in the radiation image; excluding the air regions and the impenetrable regions from the ROIs. detecting air regions and impenetrable regions in the radiation image; excluding the air regions and the impenetrable regions from the ROIs.
A data processing method, comprising: receiving (S701), by relay user equipment, UE, for Proximity Services, ProSe, communication, a multimedia broadcast multicast service, MBMS, monitoring request of a remote UE; obtaining (S702), by the relay UE, quality of service, QoS, of an MBMS bearer from the remote UE; determining (S703), by the relay UE according to the QoS of the MBMS bearer, a sending priority of MBMS data to be sent to the remote UE; and sending (S704), by the relay UE, the MBMS data of the remote UE according to the sending priority of the MBMS data of the remote UE. receiving (S701), by relay user equipment, UE, for Proximity Services, ProSe, communication, a multimedia broadcast multicast service, MBMS, monitoring request of a remote UE; obtaining (S702), by the relay UE, quality of service, QoS, of an MBMS bearer from the remote UE; determining (S703), by the relay UE according to the QoS of the MBMS bearer, a sending priority of MBMS data to be sent to the remote UE; and sending (S704), by the relay UE, the MBMS data of the remote UE according to the sending priority of the MBMS data of the remote UE.
A compound of formula 1b, 1q, or 1s: or a pharmaceutically acceptable salt or solvate thereof; for use as a medicament. or a pharmaceutically acceptable salt or solvate thereof; for use as a medicament.
A method performed by a wireless device for sending a report on channel information to a network node , the network node controlling at least one Transmission Point, TP, , which at least one TP transmits TP beams, wherein each of at least a number N of the TP beams is associated with one or more respective beamformed Beam-specific Reference Signals, BRS, for channel information measurements, the wireless device and the network node operating in a wireless communications system , the method comprising: sending the report on the channel information to the network node , the report on the channel information comprising a number of sub-reports, wherein each sub-report is associated with: one respective TP beam of the N TP beams, which is an associated TP beam, wherein each one associated TP beam comprises at least one BRS of the one or more BRS associated with each of the N TP beams, wherein each one associated TP beam is selected by the wireless device , and, at least one indicator of channel quality value, wherein the indicator of channel quality value is for one code word transmitted by the network node on the associated TP beam, wherein each sub-report corresponds to a different code word, wherein the indicator of channel quality value is computed by taking into account an interference by selected beams associated with other code words in a same sub-report and associated with other code words in other sub-reports within a same report. one respective TP beam of the N TP beams, which is an associated TP beam, wherein each one associated TP beam comprises at least one BRS of the one or more BRS associated with each of the N TP beams, wherein each one associated TP beam is selected by the wireless device , and, at least one indicator of channel quality value, wherein the indicator of channel quality value is for one code word transmitted by the network node on the associated TP beam, wherein each sub-report corresponds to a different code word, wherein the indicator of channel quality value is computed by taking into account an interference by selected beams associated with other code words in a same sub-report and associated with other code words in other sub-reports within a same report.
Head-up display for a vehicle comprising: a windshield ; an image projector ; and an optical combiner ; wherein the image projector is configured to project an image toward the optical combiner ; and wherein the optical combiner is configured to reflect the projected image toward a predetermined area , the optical combiner comprising a transparent sheet ; wherein the transparent sheet comprises a first part that is attached to the windshield and a second part that is unattached to the windshield , wherein the second part is configured to reflect a projected image toward a predetermined area ; wherein the first part of the transparent sheet is mounted on a surface of the windshield facing the predetermined area , such that the windshield provides mechanical support for the transparent sheet ; and wherein the second part of the transparent sheet is provided with a spacer being arranged distant from the first part and being provided for forming an air space between combiner and windshield . a windshield ; an image projector ; and an optical combiner ; wherein the image projector is configured to project an image toward the optical combiner ; and wherein the optical combiner is configured to reflect the projected image toward a predetermined area , the optical combiner comprising a transparent sheet ; wherein the transparent sheet comprises a first part that is attached to the windshield and a second part that is unattached to the windshield , wherein the second part is configured to reflect a projected image toward a predetermined area ; wherein the first part of the transparent sheet is mounted on a surface of the windshield facing the predetermined area , such that the windshield provides mechanical support for the transparent sheet ; and wherein the second part of the transparent sheet is provided with a spacer being arranged distant from the first part and being provided for forming an air space between combiner and windshield .
A method for manufacturing a methane-rich product gas in intermittent operation between a normal state and a lower capacity utilisation of 60% or less of the maximum capacity utilisation, wherein a starting gas containing hydrogen and carbon dioxide is catalytically methanated in at least two stages (R1, R2) under the influence of a settable pressure and a settable quantity of a gas diverted and recirculated upstream of the first stage, and the methane content of the product gas is monitored, characterised in that in the state of low capacity utilisation and at the quantity of starting gas flowing per unit of time the methane content of the product gas is more than 90 vol.% and, when the quantity of starting gas flowing per time unit is increased in the transition from the low capacity utilisation state to the normal state to maintain this methane content in the product gas, the reaction rate is increased by increasing the pressure and the quantity of recirculated gas is increased as a countermeasure to avoid the locally limited overheating zones created as a result.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving a system information block, SIB, including information on parameters for determining a UE mobility state; transmitting, to a base station, a setup complete message to confirm a completion of a radio resource control, RRC, connection establishment, wherein the setup complete message includes mobility state information indicating a mobility state of the UE just prior to entering an RRC connected state, the mobility state of the UE being determined based on the parameters, and wherein the setup complete message further includes information for mobility history availability in case that the UE has mobility history information available; receiving, from the base station, a UE information request message generated based on the setup complete message, the UE information request message including information for requesting a report of the mobility history information; and transmitting, to the base station, a UE information response message including the mobility history information, as a response to the UE information request message, wherein the mobility history information includes a list of at least one visited cell information. receiving a system information block, SIB, including information on parameters for determining a UE mobility state; transmitting, to a base station, a setup complete message to confirm a completion of a radio resource control, RRC, connection establishment, wherein the setup complete message includes mobility state information indicating a mobility state of the UE just prior to entering an RRC connected state, the mobility state of the UE being determined based on the parameters, and wherein the setup complete message further includes information for mobility history availability in case that the UE has mobility history information available; wherein the setup complete message includes mobility state information indicating a mobility state of the UE just prior to entering an RRC connected state, the mobility state of the UE being determined based on the parameters, and wherein the setup complete message further includes information for mobility history availability in case that the UE has mobility history information available; receiving, from the base station, a UE information request message generated based on the setup complete message, the UE information request message including information for requesting a report of the mobility history information; and transmitting, to the base station, a UE information response message including the mobility history information, as a response to the UE information request message, wherein the mobility history information includes a list of at least one visited cell information.
A method of performing, by a user equipment, UE , a channel estimation of a physical downlink control channel, PDCCH, in a wireless communication system, the method comprising: transmitting, to a base station , UE capability information related to the channel estimation; receiving, from the base station , information for a PDCCH monitoring span based on the UE capability information; and performing the channel estimation based on the information for the PDCCH monitoring span, wherein the UE capability information includes information for a maximum number of non-overlapped control channel elements, CCEs, capable of being channel-estimated per the PDCCH monitoring span, wherein the information for the maximum number of non-overlapped CCEs is determined based on a length of the PDCCH monitoring span, an interval between PDCCH monitoring spans and a numerology, and wherein if the number of CCEs within the PDCCH monitoring span exceeds a maximum number of non-overlapped CCEs capable of being channel-estimated per the monitoring span, the channel estimation is performed by giving priority to CCEs having high priority. transmitting, to a base station , UE capability information related to the channel estimation; receiving, from the base station , information for a PDCCH monitoring span based on the UE capability information; and performing the channel estimation based on the information for the PDCCH monitoring span, wherein the UE capability information includes information for a maximum number of non-overlapped control channel elements, CCEs, capable of being channel-estimated per the PDCCH monitoring span, wherein the information for the maximum number of non-overlapped CCEs is determined based on a length of the PDCCH monitoring span, an interval between PDCCH monitoring spans and a numerology, and wherein if the number of CCEs within the PDCCH monitoring span exceeds a maximum number of non-overlapped CCEs capable of being channel-estimated per the monitoring span, the channel estimation is performed by giving priority to CCEs having high priority.
A method comprising: generating an access token associated with a particular data asset and representing access rights of one or more users; receiving a first request for access to the particular data asset, wherein the first request indicates a requested quality level of the particular data asset, and wherein the first request for access has a weight based on the requested quality level; determining a number of previously granted access requests based on a weight associated with each previously granted access request, wherein the weight of each previously granted access request is based on a requested quality level; comparing the number of previously granted access requests to a dynamic access threshold number of requests for access to the particular data asset; granting, based upon the access rights of the one or more users, the first request , wherein granting the first request is dependent upon not exceeding the dynamic threshold number of requests for access to the particular data asset; and modifying, based upon granting the first request , the access rights represented by the access token . generating an access token associated with a particular data asset and representing access rights of one or more users; receiving a first request for access to the particular data asset, wherein the first request indicates a requested quality level of the particular data asset, and wherein the first request for access has a weight based on the requested quality level; determining a number of previously granted access requests based on a weight associated with each previously granted access request, wherein the weight of each previously granted access request is based on a requested quality level; comparing the number of previously granted access requests to a dynamic access threshold number of requests for access to the particular data asset; granting, based upon the access rights of the one or more users, the first request , wherein granting the first request is dependent upon not exceeding the dynamic threshold number of requests for access to the particular data asset; and modifying, based upon granting the first request , the access rights represented by the access token .
A method of operating a user equipment, UE, comprising: determining an old pathloss vector that comprises a plurality of elements and a first plurality of pathloss values for the plurality of elements, each element being associated with at least one pathloss reference signal, PL-RS, each of the first plurality of pathloss values being based on one or more pathloss measurements for the respective element that are prior to a respective time for the respective element; determining a new pathloss vector that comprises a second plurality of pathloss values for the plurality of elements, each of the second plurality of pathloss values being based on at least one pathloss measurement for the respective element that is at or after the respective time for the respective element; selectively triggering , for a given element among the plurality of elements, a power headroom report, PHR, based upon respective pathloss values for the given element in the old pathloss vector and the new pathloss vector; wherein the selectively triggering is associated with a differential between the respective pathloss values for the given element; wherein the selectively triggering triggers the PHR if the differential exceeds a first threshold; characterized in that , if the differential cannot be calculated or if the differential exceeds a second threshold that is higher than the first threshold, the PHR reports a default pathloss value instead of the differential, and, if the differential does not exceed the second threshold, the PHR reports the differential. determining an old pathloss vector that comprises a plurality of elements and a first plurality of pathloss values for the plurality of elements, each element being associated with at least one pathloss reference signal, PL-RS, each of the first plurality of pathloss values being based on one or more pathloss measurements for the respective element that are prior to a respective time for the respective element; determining a new pathloss vector that comprises a second plurality of pathloss values for the plurality of elements, each of the second plurality of pathloss values being based on at least one pathloss measurement for the respective element that is at or after the respective time for the respective element; selectively triggering , for a given element among the plurality of elements, a power headroom report, PHR, based upon respective pathloss values for the given element in the old pathloss vector and the new pathloss vector; wherein the selectively triggering is associated with a differential between the respective pathloss values for the given element; wherein the selectively triggering triggers the PHR if the differential exceeds a first threshold; characterized in that , if the differential cannot be calculated or if the differential exceeds a second threshold that is higher than the first threshold, the PHR reports a default pathloss value instead of the differential, and, if the differential does not exceed the second threshold, the PHR reports the differential.