mhurhangee/ep-ind-claims huggingface dataset:
A sleep study system, comprising: a set of sensors (12,14,16,18,20) configured to monitor physiological parameters of a subject during sleep as part of a sleep study, the set of sensors further configured to monitor the sleep stage of the subject; a processor adapted to: determine from outputs of the set of sensors (12,14,16,18,20) that there is sensor malfunction or sensor disconnection so that intervention to the subject is needed for maintenance or repair to the sleep study system; characterized in that the processor is further adapted to determine from the outputs of the set of sensors (12, 14, 16, 18, 20) a stage of sleep of the subject; and determine from the outputs of the set of sensors (12,14,16,18,20) a time to perform the intervention in dependence on the sleep stage of the subject, and provide an output relating to the time to perform the intervention, which is least disruptive to the subject. a set of sensors (12,14,16,18,20) configured to monitor physiological parameters of a subject during sleep as part of a sleep study, the set of sensors further configured to monitor the sleep stage of the subject; a processor adapted to: determine from outputs of the set of sensors (12,14,16,18,20) that there is sensor malfunction or sensor disconnection so that intervention to the subject is needed for maintenance or repair to the sleep study system; characterized in that the processor is further adapted to determine from the outputs of the set of sensors (12, 14, 16, 18, 20) a stage of sleep of the subject; and determine from the outputs of the set of sensors (12,14,16,18,20) a time to perform the intervention in dependence on the sleep stage of the subject, and provide an output relating to the time to perform the intervention, which is least disruptive to the subject. determine from outputs of the set of sensors (12,14,16,18,20) that there is sensor malfunction or sensor disconnection so that intervention to the subject is needed for maintenance or repair to the sleep study system; characterized in that the processor is further adapted to determine from the outputs of the set of sensors (12, 14, 16, 18, 20) a stage of sleep of the subject; and determine from the outputs of the set of sensors (12,14,16,18,20) a time to perform the intervention in dependence on the sleep stage of the subject, and provide an output relating to the time to perform the intervention, which is least disruptive to the subject.
Elevator safety system for an elevator system with a self-diagnostic functionality including at least two safety channels (22a, 22b), each safety channel (22a, 22b) configured for supplying a safety signal (23a, 23b) in case a safety issue has been detected; wherein the elevator safety system comprises a self-diagnostic evaluator, which is configured for - receiving any safety signals (23a, 23b) supplied via the safety channels (22a, 22b); - starting a timer for measuring a predetermined period of time in case a safety signal (23a, 23b) is supplied on one of the safety channels (22a, 22b); characterised in that, the self-diagnostic evaluator is further configured for - stopping any further operation of the elevator system in case safety signals (23a, 23b) are simultaneously supplied on at least two safety channels (22a, 22b) and in case the safety signal (23a, 23b) is still supplied after the predetermined period of time has expired. wherein the elevator safety system comprises a self-diagnostic evaluator, which is configured for - receiving any safety signals (23a, 23b) supplied via the safety channels (22a, 22b); - starting a timer for measuring a predetermined period of time in case a safety signal (23a, 23b) is supplied on one of the safety channels (22a, 22b); - receiving any safety signals (23a, 23b) supplied via the safety channels (22a, 22b); - starting a timer for measuring a predetermined period of time in case a safety signal (23a, 23b) is supplied on one of the safety channels (22a, 22b); characterised in that, the self-diagnostic evaluator is further configured for - stopping any further operation of the elevator system in case safety signals (23a, 23b) are simultaneously supplied on at least two safety channels (22a, 22b) and in case the safety signal (23a, 23b) is still supplied after the predetermined period of time has expired. - stopping any further operation of the elevator system in case safety signals (23a, 23b) are simultaneously supplied on at least two safety channels (22a, 22b) and in case the safety signal (23a, 23b) is still supplied after the predetermined period of time has expired.
A method of enabling private address resolution using a wireless personal area network controller when a host processor is in a sleep state, the method comprising: establishing a connection with at least one client device having received a broadcast of the host device name, the connection allowing an exchange of a public address and an identity resolution key for each device; generating a trusted database comprising the public address and the corresponding identity resolution keys for the at least one connected client device, the trusted database corresponding to trusted client devices for a connection between a trusted client device in the trusted database and a host device; storing the trusted database in a memory associated with the wireless personal area network controller; receiving, by the wireless personal area network controller, a connection request from a client device while the host processor is in the sleep state, the connection request including a resolvable private address and identity resolution key of the client device; obtaining a corresponding public address for the client device based on the resolvable private address and the identity resolution key received from the connection request and identifying the obtained corresponding public address stored in the trusted database which is used to authenticate the client device; and waking, in response to the client device being authenticated, the host processor to connect with the trusted client device. establishing a connection with at least one client device having received a broadcast of the host device name, the connection allowing an exchange of a public address and an identity resolution key for each device; generating a trusted database comprising the public address and the corresponding identity resolution keys for the at least one connected client device, the trusted database corresponding to trusted client devices for a connection between a trusted client device in the trusted database and a host device; storing the trusted database in a memory associated with the wireless personal area network controller; receiving, by the wireless personal area network controller, a connection request from a client device while the host processor is in the sleep state, the connection request including a resolvable private address and identity resolution key of the client device; obtaining a corresponding public address for the client device based on the resolvable private address and the identity resolution key received from the connection request and identifying the obtained corresponding public address stored in the trusted database which is used to authenticate the client device; and waking, in response to the client device being authenticated, the host processor to connect with the trusted client device.
A power supply connector comprising a power supply cable (11, 31), a power supply connector plug (12, 32), a power supply connector socket (13, 33) and a structural member (14, 34), wherein, the power supply cable (11, 31) comprises, at one end of the power supply cable (11, 31) connected to the power supply connector plug (12, 32), a shielding wire (111, 35) formed of a twisted shielding layer of the power supply cable (11, 31) and a power supply wire separated from the shielding layer; the power supply connector plug (12, 32) comprises: a shielding wire placement zone (121, 36) in which the shielding wire (111, 35) is placed, a metallic screw (122, 37) for fixing the shielding wire (111, 35), two metallic elastic sheets (123, 39) which establish an interference connection with the structural member (14, 34) after power supply connector plug (12, 32) is fitted into the power supply connector socket (13, 33), characterized in that the power supply connector plug further comprises two metallic sheets (124, 38) connected to the two metallic elastic sheets (123, 39) respectively; the two metallic sheets (124, 38) are arranged at either side of the power supply connector plug (12, 32) respectively, and the two metallic elastic sheets (123, 39) are also arranged at either side of the power supply connector plug (12, 32) respectively; and in that the metallic screw (122, 37) is arranged at one side of the power supply connector plug (12, 32) and is connected to the shielding wire (111, 35) in the shielding wire placement zone (121, 36) and one of the metallic sheets (124, 38); another one of the metallic sheets (124, 38) is extended to an inner wall of the shielding wire placement zone (121, 36), and is connected to the shielding wire (111, 35) after the metallic screw (122, 37) is tightened.
A method for producing high-density molecule arrays having a pitch of ≤ 300 μm, the method comprising the following steps: (i) providing a target substrate having a plurality of discrete spots, (ii) conditioning selected spots by selective and direct action of electromagnetic radiation, and (iii) reacting at least one monomer with reactants present in immobilized form in the selected spots of the target substrate, wherein there is provided at least one starting substrate having a material layer in the form of a particle layer or film layer, consisting of a polymer matrix in which the at least one monomer for the combinatorial synthesis of molecule arrays is embedded, wherein the step (ii) of conditioning selected spots comprises the selective transfer of material with the monomers embedded therein from the starting substrate to the target substrate and the site-specific fixing of the material with the monomers embedded therein to the target substrate, wherein the transfer and/or fixing takes place by indirect heating of the material by means of electromagnetic radiation in that one or more intermediate layers are arranged between the starting substrate and the material layer, which assist the transfer of material, or in that substances are embedded in the polymer matrix, which influence the absorption behavior, wherein the one or more intermediate layers consist of carbon, a metal, polyimide or polysiloxane, wherein the substances which influence the absorption behavior are selected from graphite nanoparticles, soot particles or fullerenes, wherein a continuous wave laser is used as the source for the electromagnetic radiation, and wherein the steps (ii) and (iii) are carried out iteratively with the same or different starting substrates. (i) providing a target substrate having a plurality of discrete spots, (ii) conditioning selected spots by selective and direct action of electromagnetic radiation, and (iii) reacting at least one monomer with reactants present in immobilized form in the selected spots of the target substrate,
Method for forming article bars (2.04; 3.04; 5; G) from individual articles (P; 6), particularly for bar packages, wherein isolated, preferably packaged articles (P; 6) are transferred from a discharge device (1; 35) to an article-bar forming device (2; 1') in which a predetermined number of individual articles (P; 6) are grouped into an article bar (2.04; 3.04; 5; G) and said article bar (2.04; 3.04; 5, G) is transferred to a transfer device (3; 20) to a longitudinal bar conveyor (4; 36), wherein in response to a beginning of the provision of a predetermined number of individual articles (6; P) and/or to a period which is needed or available for grouping the predetermined number of individual articles (6; P) into an article bar (2.04; 3.04; 5; G), a plurality of article-bar formers (2, 2b, 2c; 1 a, 1 b, 1 c) of the article-bar forming device (2; 1') are controlled separately and independently of one another for grouping the individual articles (P; 6) into an article bar (2.04; 3.04; 5; G) and for transferring the article bar (2.04; 3.04; 5; G) to the transfer device (3; 20), characterized in that the transfer device (3; 20) consists of a plurality of individual transfer conveyors (3.11, 3.21, 3.31; 21a, 21b, 22a, 22b) which are controllable independently of one another, wherein the number of the transfer conveyors (3.11, 3.21, 3.31; 21 a, 21 b, 22a, 22b) corresponds to the number of the article-bar formers (2a, 2b, 2c; 1 a, 1 b, 1 c) of the article-bar forming device (2; 1').
Process for producing a gas diffusion electrode for the reduction of oxygen, where the gas diffusion electrode has at least one sheet-like electrically conductive support element and a gas diffusion layer applied to the support element and an electrocatalyst, characterized in that the gas diffusion layer is formed by a mixture of carbon nanotubes and fluoropolymer, in particular PTFE, and in that a mixture of carbon nanotubes and fluoropolymer is applied in powder form to the support element and compacted, with the carbon nanotubes forming the electrocatalyst and being substantially free of nitrogen constituents, so that the proportion of nitrogen in the form of nitrogen chemically bound to the carbon nanotubes is less than 0.5% by weight, and with the carbon nanotubes being used in the form of an agglomerate, with at least 95% by volume of the agglomerate particles having an external diameter, determined by means of laser light scattering on an aqueous dispersion without the use of ultrasound, in the range from 30 μm to 5000 μm.
A method of characterising a target polynucleotide, comprising: (a) contacting the target polynucleotide with a transmembrane pore and a Hel308 helicase such that the helicase controls the movement of the target polynucleotide through the pore and nucleotides in the target polynucleotide interact with the pore; and (b) measuring one or more characteristics of the target polynucleotide during one or more interactions and thereby characterising the target polynucleotide. (a) contacting the target polynucleotide with a transmembrane pore and a Hel308 helicase such that the helicase controls the movement of the target polynucleotide through the pore and nucleotides in the target polynucleotide interact with the pore; and (b) measuring one or more characteristics of the target polynucleotide during one or more interactions and thereby characterising the target polynucleotide.
A stalk roll set for a corn harvesting attachment comprising a first stalk roll comprising a first tube with an axis of rotation and a second stalk roll comprising a second tube with an axis of rotation, at least one pair of flutes (30, 36, 32, 38) projecting radially from each tube with respect to each axis of rotation, the pair of flutes (30, 36, 32, 38) being bilaterally symmetrical and each including a knife edge with a leading surface and a trailing surface forming an acute angle therebetween, a first flute of the first stalk roll having the trailing surface and the second flute of the second stalk roll having the leading surface, said flutes (30, 36) being disposed for engagement of corn stalks in a zone between said stalk rolls (20, 22) during rotation of said stalk rolls (20, 22) about their axis of rotation, characterised in that said first and second flutes (30, 36) are offset relative to each other and overlap in said engagement zone for creating therein a shearing action on said corn stalks by the trailing surface of said first flute and the adjacent leading surface of said second flute.
Securing device for an installation of the PSEM type, comprising a threaded rod (33; 133; 233) that is conductive and a ring (34; 134; 234) that is conductive, the ring (34; 134; 234) comprising a passage (40, 41) configured to receive the threaded rod (33; 133; 233) in a manner sealed from gases, the threaded rod extending beyond each side of the ring (34; 134; 234) when it is received in the passage, the securing device being configured to electrically connect two conductive elements (32, 35; 132, 135; 232; 235) and to maintain each of them mounted on the threaded rod (33; 133; 233).
An apparatus for monitoring performance of an integrated circuit, said apparatus comprising: a delay line, which is arranged to receive a pulse signal, wherein the delay line has a controllable, variable length and is arranged to propagate the pulse signal through a set length; a comparator, which is arranged to receive the propagated pulse signal from the delay line and a clock signal, said comparator being arranged to determine whether the received signal is received early or late; and a feedback loop (50; 150), which receives input from the comparator for dynamically increasing or decreasing the set length of the delay line in dependence of the determination by the comparator; wherein said apparatus is arranged to determine a speed of the integrated circuit based on a determination by the comparator that the signal from the delay line closely matches the clock signal. a delay line, which is arranged to receive a pulse signal, wherein the delay line has a controllable, variable length and is arranged to propagate the pulse signal through a set length; a comparator, which is arranged to receive the propagated pulse signal from the delay line and a clock signal, said comparator being arranged to determine whether the received signal is received early or late; and a feedback loop (50; 150), which receives input from the comparator for dynamically increasing or decreasing the set length of the delay line in dependence of the determination by the comparator; wherein said apparatus is arranged to determine a speed of the integrated circuit based on a determination by the comparator that the signal from the delay line closely matches the clock signal.
Use of one or a mixture of isosorbide diester(s) of formula I, wherein R 1 and R 2, identical or different, each represents a linear, straight or branched, saturated or unsaturated, hydrocarbon chain comprising from 3 to 17 carbon atoms; as a deposit control agent, wherein the isosorbide diester has a pour point of at most 15°C.
A computing device for storing content on a content data server in a data de-duplication system, the computing device comprising: a cryptographic module to (i) encrypt each block of a fragmented file using a file encryption key generated by the computing device, (ii) generate a keyed hash of each block using a community key, wherein the community key is a cryptographic key shared by a plurality of computing devices of the data de-duplication system, and (iii) encrypt a file decryption key using a member encryption key of the computing device, wherein the file decryption key may be used to decrypt each encrypted block; and a communication module to: transmit to the content data server each encrypted block, the keyed hash of each block, and a member identification that identifies the computing device; and transmit to a key server of the data de-duplication system the keyed hash of each block, the encrypted file decryption key, and the member identification. a cryptographic module to (i) encrypt each block of a fragmented file using a file encryption key generated by the computing device, (ii) generate a keyed hash of each block using a community key, wherein the community key is a cryptographic key shared by a plurality of computing devices of the data de-duplication system, and (iii) encrypt a file decryption key using a member encryption key of the computing device, wherein the file decryption key may be used to decrypt each encrypted block; and a communication module to: transmit to the content data server each encrypted block, the keyed hash of each block, and a member identification that identifies the computing device; and transmit to a key server of the data de-duplication system the keyed hash of each block, the encrypted file decryption key, and the member identification. transmit to the content data server each encrypted block, the keyed hash of each block, and a member identification that identifies the computing device; and transmit to a key server of the data de-duplication system the keyed hash of each block, the encrypted file decryption key, and the member identification.
A method comprising: receiving, by a wireless device, parameters indicating: a first number of physical downlink control channel, PDCCH, monitor occasions, MOs, per synchronization signal block, SSB, of SSBs, in a paging occasion; a first starting location indication of first PDCCH MOs of a paging early indication, PEI, occasion; and a second starting location indication of second PDCCH MOs of the paging occasion; receiving, a PEI, based on monitoring a second number of the first PDCCH MOs of the PEI occasion, wherein the second number is determined based on: the first number; and a quantity of the SSBs; and monitoring, in response to the PEI, a third number of the second PDCCH MOs of the paging occasion, wherein the third number is equal to the second number. receiving, by a wireless device, parameters indicating: a first number of physical downlink control channel, PDCCH, monitor occasions, MOs, per synchronization signal block, SSB, of SSBs, in a paging occasion; a first starting location indication of first PDCCH MOs of a paging early indication, PEI, occasion; and a second starting location indication of second PDCCH MOs of the paging occasion; a first number of physical downlink control channel, PDCCH, monitor occasions, MOs, per synchronization signal block, SSB, of SSBs, in a paging occasion; a first starting location indication of first PDCCH MOs of a paging early indication, PEI, occasion; and a second starting location indication of second PDCCH MOs of the paging occasion; receiving, a PEI, based on monitoring a second number of the first PDCCH MOs of the PEI occasion, wherein the second number is determined based on: the first number; and a quantity of the SSBs; and the first number; and a quantity of the SSBs; and monitoring, in response to the PEI, a third number of the second PDCCH MOs of the paging occasion, wherein the third number is equal to the second number.