mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing access control to a first physical space controlled by a first lock device, the method being performed by an access management device , and comprising the steps of: determining , based on a localisation procedure, whether a mobile credential (2, 2a-2b) for the first physical space is located inside or outside a barrier secured by a lock device , which comprises considering the mobile credential (2, 2a-2b) to be inside when the mobile credential (2, 2a-2b) is in the first physical space as well as when the mobile credential (2, 2a-2b) is in a second physical space secured by a second lock device, wherein the second physical space is adjacent to the first physical space , wherein the first physical space and the second physical space are corresponding physical spaces, wherein a mobile credential for the first physical space of someone visiting the second physical space may still be within range of the first lock device, and wherein the access management device determines when the mobile credential is in the first physical space or the second physical space by access to a mapping between positions and the respective physical spaces; storing an inside indicator in association with the mobile credential (2, 2a-2b) when it is located on the inside of the barrier , the inside indicator being valid until explicitly cleared; and preventing the mobile credential (2, 2a-2b) from establishing a communication channel with the first lock device when a valid inside indicator is stored for the mobile credential (2, 2a-2b). determining , based on a localisation procedure, whether a mobile credential (2, 2a-2b) for the first physical space is located inside or outside a barrier secured by a lock device , which comprises considering the mobile credential (2, 2a-2b) to be inside when the mobile credential (2, 2a-2b) is in the first physical space as well as when the mobile credential (2, 2a-2b) is in a second physical space secured by a second lock device, wherein the second physical space is adjacent to the first physical space , wherein the first physical space and the second physical space are corresponding physical spaces, wherein a mobile credential for the first physical space of someone visiting the second physical space may still be within range of the first lock device, and wherein the access management device determines when the mobile credential is in the first physical space or the second physical space by access to a mapping between positions and the respective physical spaces; storing an inside indicator in association with the mobile credential (2, 2a-2b) when it is located on the inside of the barrier , the inside indicator being valid until explicitly cleared; and preventing the mobile credential (2, 2a-2b) from establishing a communication channel with the first lock device when a valid inside indicator is stored for the mobile credential (2, 2a-2b).
A C12A7 electride thin film fabrication method characterized by comprising a step of: forming an amorphous C12A7 electride thin film on a substrate by vapor deposition under an atmosphere with an oxygen partial pressure of less than or equal to 0.0001 Pa and a hydrogen partial pressure of less than 0.004 Pa, using a target made of a crystalline C12A7 electride having an electron density within a range of 2.0×10 18 cm -3 to 2.3×10 21 cm -3 .
Device for chromatic discrimination and counting of organisms in liquid medium, comprising: a channel for conducting the sample, wherein the channel has an inner section so that organisms are driven sequentially one-by-one through that channel; a collector for conducting the sample to that channel; one or more light emitters to emit a chromatic signal to that channel; two or more light receivers to capture the chromatic signal of the organism intercepting that channel; wherein light emitters and receivers are radially distributed around an optical window located in a cross section of the stylet; wherein the chromatic signal present in the channel is a chromatic signal absorbed, reflected, refracted and/or self-issued by the organisms; wherein to capture the chromatic signal absorbance of the organism, one or more light receivers of the two or more light receivers is at an angle of 180° from a light emitter of the one or more light emitters; an electronic data processor configured to differentiate the organisms counted according to the chromatic signal received; wherein the organisms are neonates of Daphnia, Ceriodaphnia, and Artemia, fish eggs, and similar organisms. a channel for conducting the sample, wherein the channel has an inner section so that organisms are driven sequentially one-by-one through that channel; a collector for conducting the sample to that channel; one or more light emitters to emit a chromatic signal to that channel; two or more light receivers to capture the chromatic signal of the organism intercepting that channel; wherein light emitters and receivers are radially distributed around an optical window located in a cross section of the stylet; wherein the chromatic signal present in the channel is a chromatic signal absorbed, reflected, refracted and/or self-issued by the organisms; wherein to capture the chromatic signal absorbance of the organism, one or more light receivers of the two or more light receivers is at an angle of 180° from a light emitter of the one or more light emitters; an electronic data processor configured to differentiate the organisms counted according to the chromatic signal received; wherein the organisms are neonates of Daphnia, Ceriodaphnia, and Artemia, fish eggs, and similar organisms.
A wearable biosensor comprising: a housing comprising: a first surface for being applied to a wearer's skin, the first surface defining a first opening, and a second surface opposite the first surface, the second surface defining a second opening, the first and second openings defining a substantially unobstructed pathway through the housing ; a biosensor wire partially disposed within the housing and having an exterior portion extending through the first opening; a hollow insertion needle positioned within the pathway and extending through the first opening, the hollow insertion needle at least partially encircling the biosensor wire ; and a biosensor retention feature collapsible against the first surface of the housing , the biosensor retention feature encircling and contacting the hollow insertion needle . a housing comprising: a first surface for being applied to a wearer's skin, the first surface defining a first opening, and a second surface opposite the first surface, the second surface defining a second opening, the first and second openings defining a substantially unobstructed pathway through the housing ; a first surface for being applied to a wearer's skin, the first surface defining a first opening, and a second surface opposite the first surface, the second surface defining a second opening, the first and second openings defining a substantially unobstructed pathway through the housing ; a biosensor wire partially disposed within the housing and having an exterior portion extending through the first opening; a hollow insertion needle positioned within the pathway and extending through the first opening, the hollow insertion needle at least partially encircling the biosensor wire ; and a biosensor retention feature collapsible against the first surface of the housing , the biosensor retention feature encircling and contacting the hollow insertion needle .
An electronic device , comprising: a first sensor configured to obtain an electromagnetic, 'EM', signal from an external device; a first communication module configured to provide a magnetic stripe transmission, 'MST', signal; a processor ; and a memory coupled with the processor , wherein the memory is configured to store a waveform table including a plurality of unique EM signals corresponding to a plurality of external devices, and instructions which, upon execution, instruct the processor to: compare the EM signal with each of the unique signals from the plurality of unique EM signals included in the waveform table, thereby identifying the corresponding external device; and control the first communication module to transmit, to the external device, the MST signal which is of a predetermined type specified for the identified external device. a first sensor configured to obtain an electromagnetic, 'EM', signal from an external device; a first communication module configured to provide a magnetic stripe transmission, 'MST', signal; a processor ; and a memory coupled with the processor , wherein the memory is configured to store a waveform table including a plurality of unique EM signals corresponding to a plurality of external devices, and instructions which, upon execution, instruct the processor to: compare the EM signal with each of the unique signals from the plurality of unique EM signals included in the waveform table, thereby identifying the corresponding external device; and control the first communication module to transmit, to the external device, the MST signal which is of a predetermined type specified for the identified external device. compare the EM signal with each of the unique signals from the plurality of unique EM signals included in the waveform table, thereby identifying the corresponding external device; and control the first communication module to transmit, to the external device, the MST signal which is of a predetermined type specified for the identified external device.
A device in combination with a tube , the device being intended to shape the tube on at least one insert present in the tube by means of a compressive force generated by a shock wave formed by an electric arc generator, said device comprising at least a first forming cavity containing an immersion bath comprising a liquid in which the tube is dipped, said immersion bath being separated into two volumes, the first volume being that in which the shock wave deploys and the second volume being that in which the immersion liquid is absent or may escape under the effect of the compressive force formed in the first volume, the separation between the two volumes being ensured by the tube to be deformed.
A cement-SCM (supplementary cementitious material) blend comprising: a narrow PSD hydraulic cement fraction having a particle size distribution (PSD) characterized by a d10, d50, and d90; and at least one SCM fraction having a PSD characterized by a d10, d50, and d90 that differ from the d10, d50, and d90 of the hydraulic cement fraction in order for the cement-SCM blend to form a cement paste having a maximum particle packing density of at least 57.0%, determined by means of equation : φ = ρ wet − ρ w ρ c − ρ w where φ = maximum solids volume concentration in a cement paste ρ wet = maximum density of wet paste ρ w = density of water ρ c = density of cement wherein the cement-SCM blend comprises a first SCM fraction having a d50 such that the d50 of the hydraulic cement fraction is at least 3.0 times the d50 of the first SCM fraction and a second SCM fraction having a d50 that is at least 3.0 times the d50 of the hydraulic cement fraction. a narrow PSD hydraulic cement fraction having a particle size distribution (PSD) characterized by a d10, d50, and d90; and at least one SCM fraction having a PSD characterized by a d10, d50, and d90 that differ from the d10, d50, and d90 of the hydraulic cement fraction in order for the cement-SCM blend to form a cement paste having a maximum particle packing density of at least 57.0%, determined by means of equation : φ = ρ wet − ρ w ρ c − ρ w where φ = maximum solids volume concentration in a cement paste ρ wet = maximum density of wet paste ρ w = density of water ρ c = density of cement where φ = maximum solids volume concentration in a cement paste ρ wet = maximum density of wet paste ρ w = density of water ρ c = density of cement wherein the cement-SCM blend comprises a first SCM fraction having a d50 such that the d50 of the hydraulic cement fraction is at least 3.0 times the d50 of the first SCM fraction and a second SCM fraction having a d50 that is at least 3.0 times the d50 of the hydraulic cement fraction.
A fluororubber molded product obtained by the steps of molding and crosslinking a fluororubber composition, thereafter immersing the composition in a fluorocarbon or an aqueous solution containing a fluorocarbon at a concentration of not less than 10% by volume, taking the composition out of the solution and drying the composition, wherein the fluorocarbon includes a hydrochlorofluorocarbon selected from the group consisting of chlorodifluoromethane, 2,2-dichloro-1,1,1-trifluoroethane, 1-fluoro-1,1-dichloroethane, 1-chloro-1,1-difluoroethane, 1,1,1,2,2-pentafluoro-3,3-dichloropropane, 1,3-dichloro-1,1,2,2,3-pentafluoropropane and mixtures thereof, and wherein the fluororubber includes vinylidene fluoride based fluororubber.
Method for attaching an electrode to a liquid crystal element comprising: an incision step in which an incision is made in a liquid crystal layer that is capable of being disposed between a pair of substrates to which electrically conductive films have been attached, to form an opening in the surface of the liquid crystal layer while also forming a space connecting with the opening inside the liquid crystal layer , an electrode insertion step in which at least a portion of an electrode is inserted into the space formed in the incision step, and a bonding step in which the electrode and the liquid crystal layer are bonded with said at least a portion of the electrode that has been inserted into the space being sandwiched by the liquid crystal layer , the liquid crystal layer being disposed between said pair of substrates which are first and second resin film substrates, wherein the electrode has a flat main body and comprises a first adhesive layer and second adhesive layer , which are each an anisotropic conductive film, wherein a heated first heat bar is contacted with the first resin film substrate and pressed in direction of the liquid crystal layer while a heated second heat bar is contacted with the second resin film substrate and likewise pressed in the direction of the liquid crystal layer , thereby contact bonding together the electrode and the liquid crystal layer such as to enable conductive connection between the first and second adhesive layers and the first and second electrically conductive films , respectively, through the liquid crystal layer. an incision step in which an incision is made in a liquid crystal layer that is capable of being disposed between a pair of substrates to which electrically conductive films have been attached, to form an opening in the surface of the liquid crystal layer while also forming a space connecting with the opening inside the liquid crystal layer , an electrode insertion step in which at least a portion of an electrode is inserted into the space formed in the incision step, and a bonding step in which the electrode and the liquid crystal layer are bonded with said at least a portion of the electrode that has been inserted into the space being sandwiched by the liquid crystal layer , the liquid crystal layer being disposed between said pair of substrates which are first and second resin film substrates, wherein the electrode has a flat main body and comprises a first adhesive layer and second adhesive layer , which are each an anisotropic conductive film,
A culture media comprising a glycosaminoglycan (GAG) composition for enhancing cell growth in culture and maintenance of multi-lineage cellular differentiation potential, wherein said GAG composition comprises hyaluronic acid, chondroitin sulfate and N-acetyl D-glucosamine in a relative weight ratio of 1:20:20, wherein said GAG composition is at a concentration of 1-10% (v/v).
A method comprising: establishing, by processing circuitry of a router and in a bilateral TCP state database of the router, a bilateral TCP state record for a TCP bi-flow session, wherein the bilateral TCP state record includes reference TCP sequence information for the TCP bi-flow session and statistical information regarding TCP errors detected by the bilateral TCP state machine, and wherein the TCP bi-flow session comprises a forward packet flow and a return packet flow; receiving, by the processing circuitry and via a first network interface of the router, packets of the forward packet flow; receiving, by the processing circuitry and via a second network interface of the router, packets of the return packet flow; monitoring the TCP bi-flow session, the monitoring including detecting, by the processing circuitry and based on received TCP sequence information from both the received packets of the forward packet flow and the received packets of the return packet flow and the reference TCP sequence information of the bilateral TCP state record for the TCP bi-flow session, one or more TCP errors; and characterised by further comprising: reconfiguring, by the processing circuitry and based on detecting the one or more TCP errors, the TCP bi-flow session such that the processing circuitry receives, via a third network interface of the router, one of subsequent packets of the forward packet flow or subsequent packets of the return packet flow, wherein the third network interface is different from the first network interface and the second network interface. establishing, by processing circuitry of a router and in a bilateral TCP state database of the router, a bilateral TCP state record for a TCP bi-flow session, wherein the bilateral TCP state record includes reference TCP sequence information for the TCP bi-flow session and statistical information regarding TCP errors detected by the bilateral TCP state machine, and wherein the TCP bi-flow session comprises a forward packet flow and a return packet flow; receiving, by the processing circuitry and via a first network interface of the router, packets of the forward packet flow; receiving, by the processing circuitry and via a second network interface of the router, packets of the return packet flow; monitoring the TCP bi-flow session, the monitoring including detecting, by the processing circuitry and based on received TCP sequence information from both the received packets of the forward packet flow and the received packets of the return packet flow and the reference TCP sequence information of the bilateral TCP state record for the TCP bi-flow session, one or more TCP errors; and characterised by further comprising: reconfiguring, by the processing circuitry and based on detecting the one or more TCP errors, the TCP bi-flow session such that the processing circuitry receives, via a third network interface of the router, one of subsequent packets of the forward packet flow or subsequent packets of the return packet flow, wherein the third network interface is different from the first network interface and the second network interface.
System comprising - a container for accommodating a spraying medium - means for the carrying of the container by a user - at least one nozzle for applying the spraying medium to a target object - means for conveying the spraying medium from the container through the at least one nozzle in the direction of the target object - a flow meter for determining the spraying medium flow rate - means for determining the speed of the user - one or more signal encoders - means for sensing and evaluating the spraying medium flow rate and the speed of the user, - means for controlling the one or more signal encoders, wherein these means are configured in such a way that they induce the one or more signal encoders to send one or more signals to the user if one or more application parameters deviate from predefined values, - characterized in that the system comprises a distance sensor for acquiring the spraying distance between the at least one nozzle and the target object and means for sensing and evaluating the spraying distance, wherein the system is configured in such a way that it induces the one or more signal encoders to send an acoustic, visual and/or tactile signal to the user if the spraying distance is outside defined limits. - a container for accommodating a spraying medium - means for the carrying of the container by a user - at least one nozzle for applying the spraying medium to a target object - means for conveying the spraying medium from the container through the at least one nozzle in the direction of the target object - a flow meter for determining the spraying medium flow rate - means for determining the speed of the user - one or more signal encoders - means for sensing and evaluating the spraying medium flow rate and the speed of the user, - means for controlling the one or more signal encoders, wherein these means are configured in such a way that they induce the one or more signal encoders to send one or more signals to the user if one or more application parameters deviate from predefined values, - characterized in that the system comprises a distance sensor for acquiring the spraying distance between the at least one nozzle and the target object and means for sensing and evaluating the spraying distance, wherein the system is configured in such a way that it induces the one or more signal encoders to send an acoustic, visual and/or tactile signal to the user if the spraying distance is outside defined limits.
A dissolvable foam scaffold for cell culture comprising: an ionotropically crosslinked polygalacturonic acid compound selected from at least one of: pectic acid; partially esterified pectic acid, partially amidated pectic acid and salts thereof; at least one first water-soluble polymer having surface activity, the at least one first water-soluble polymer being selected from the group consisting of hydroxyethylcellulose (HEC), hydroxypropylcellulose (HPC), methylcellulose (MC), hydroxyethylmethylcellulose (HEMC), hydroxypropyl-methylcellulose (HPMC), bovine serum albumin (BSA), gelatine, casein, hydrophobins, and poloxamer; at least one second polymer having no surface activity, the at least one second polymer comprising dextran; and a water-soluble plasticizer, wherein the dissolvable foam scaffold comprises between 15 wt.% and 55 wt. % water-soluble plasticizer, and wherein the dissolvable foam scaffold has a dry density of less than 0.11 g/cc. an ionotropically crosslinked polygalacturonic acid compound selected from at least one of: pectic acid; partially esterified pectic acid, partially amidated pectic acid and salts thereof; at least one first water-soluble polymer having surface activity, the at least one first water-soluble polymer being selected from the group consisting of hydroxyethylcellulose (HEC), hydroxypropylcellulose (HPC), methylcellulose (MC), hydroxyethylmethylcellulose (HEMC), hydroxypropyl-methylcellulose (HPMC), bovine serum albumin (BSA), gelatine, casein, hydrophobins, and poloxamer; at least one second polymer having no surface activity, the at least one second polymer comprising dextran; and a water-soluble plasticizer, wherein the dissolvable foam scaffold comprises between 15 wt.% and 55 wt. % water-soluble plasticizer, and wherein the dissolvable foam scaffold has a dry density of less than 0.11 g/cc.