mhurhangee/patent-ind-claim-en huggingface dataset:
A programmable device for controlling an energy consuming system, the device comprising: high-power consuming circuitry adapted and programmed to perform while in an active state a plurality of high power activities including interfacing with a user, the high-power consuming circuitry using substantially less power while in an inactive state; low-power consuming circuitry adapted and programmed to perform a plurality of low power activities; and power stealing circuitry adapted to harvest power from a triggering circuit for turning on and off a system function of the energy consuming system, the programmable device being characterised in that : the power is harvested for an interval, wherein the interval is a time small enough such that the triggering circuit will not switch the system function of the energy consuming system; the programmable device further comprising: a power storage medium adapted to store power harvested by the power stealing circuitry for use by at least the high-power consuming circuitry such that the high-power consuming circuitry can temporarily operate in an active state while using energy at a greater rate than can be safely harvested by the power stealing circuitry without inadvertently switching the system function of the energy consuming system. high-power consuming circuitry adapted and programmed to perform while in an active state a plurality of high power activities including interfacing with a user, the high-power consuming circuitry using substantially less power while in an inactive state; low-power consuming circuitry adapted and programmed to perform a plurality of low power activities; and power stealing circuitry adapted to harvest power from a triggering circuit for turning on and off a system function of the energy consuming system, the programmable device being characterised in that : the power is harvested for an interval, wherein the interval is a time small enough such that the triggering circuit will not switch the system function of the energy consuming system; the programmable device further comprising: a power storage medium adapted to store power harvested by the power stealing circuitry for use by at least the high-power consuming circuitry such that the high-power consuming circuitry can temporarily operate in an active state while using energy at a greater rate than can be safely harvested by the power stealing circuitry without inadvertently switching the system function of the energy consuming system. the power is harvested for an interval, wherein the interval is a time small enough such that the triggering circuit will not switch the system function of the energy consuming system; the programmable device further comprising: a power storage medium adapted to store power harvested by the power stealing circuitry for use by at least the high-power consuming circuitry such that the high-power consuming circuitry can temporarily operate in an active state while using energy at a greater rate than can be safely harvested by the power stealing circuitry without inadvertently switching the system function of the energy consuming system.
An aqueous cleaning composition comprising: (a) an ionic liquid; (b) amino alcohol; and (c) at least 50 wt.% water; wherein the ionic liquid comprises one or more of: 1) choline alkylsulfate; 2) polyalkoxylated alkylammonium quaternary salt; 3) alkyl trimonium fatty alkanoate; 4) fatty alkylamidoalkyl alkyldimonium alkylsulfate; 5) 1,3-dihydrocarbyl substituted imidazolium salt; and 6) di(fatty acyloxyalkyl)hydroxyalkyl ammonium quaternary salt; wherein other than the amino alcohol, the composition is free of volatile organic compounds, and wherein the composition further comprises disinfecting quaternary surfactant, nonionic surfactant and/or chelating agent. 1) choline alkylsulfate; 2) polyalkoxylated alkylammonium quaternary salt; 3) alkyl trimonium fatty alkanoate; 4) fatty alkylamidoalkyl alkyldimonium alkylsulfate; 5) 1,3-dihydrocarbyl substituted imidazolium salt; and 6) di(fatty acyloxyalkyl)hydroxyalkyl ammonium quaternary salt;
A polypeptide having an immune-inducing activity and selected from the group of polypeptides (a) to (c) below: (a) polypeptides having an immune-inducing activity and consisting of 7 or more consecutive amino acids within the region of positions 24 to 97, positions 134 to 197, positions 265 to 332, positions 378 to 463, positions 472 to 498, positions 533 to 567, positions 613 to 643, positions 671 to 735, positions 737 to 780, positions 792 to 830, positions 832 to 899, positions 920 to 943, positions 946 to 993, or positions 1074 to 1215 in the amino acid sequence represented by SEQ ID NO: 2; (b) polypeptides consisting of the amino acid sequences represented by SEQ ID NOs: 7, 22, 36, 42, 63, and 64. (c) polypeptides comprising one, two or three amino acid deletions, substitutions and/or additions in the amino acid sequence of any one of the polypeptides (a) and (b) and which retain the immune-inducing activity of said polypeptides. (a) polypeptides having an immune-inducing activity and consisting of 7 or more consecutive amino acids within the region of positions 24 to 97, positions 134 to 197, positions 265 to 332, positions 378 to 463, positions 472 to 498, positions 533 to 567, positions 613 to 643, positions 671 to 735, positions 737 to 780, positions 792 to 830, positions 832 to 899, positions 920 to 943, positions 946 to 993, or positions 1074 to 1215 in the amino acid sequence represented by SEQ ID NO: 2; (b) polypeptides consisting of the amino acid sequences represented by SEQ ID NOs: 7, 22, 36, 42, 63, and 64. (c) polypeptides comprising one, two or three amino acid deletions, substitutions and/or additions in the amino acid sequence of any one of the polypeptides (a) and (b) and which retain the immune-inducing activity of said polypeptides.
A computer-implemented method for attestation between a host system and a data processing accelerator, the method comprising: transmitting a request for attestation to a data processing, DP, accelerator, wherein the DP accelerator generates an attestation key pair having a public attestation key, PK_ATT, and a private attestation key, SK_ATT, in response to the request for attestation; receiving at a host system an encrypted PK_ATT signed using a private root key, SK_RK, of the DP accelerator from the DP accelerator over a bus, wherein the private root key is preconfigured and stored in a secure storage area during manufacturing of the DP accelerator; verifying the PK_ATT using a public root key, PK_RK, associated with the DP accelerator; in response to successfully verifying the PK_ATT, transmitting a kernel identifier, ID, to the DP accelerator to request attestation of a kernel object stored in the DP accelerator; in response to receiving a signed kernel digest corresponding to the kernel object from the DP accelerator, verifying the kernel digest using the PK_ATT, wherein the kernel digest is signed using the SK_ATT corresponding to the PK_ATT; and sending the verification results to the DP accelerator for the DP accelerator to access the kernel object based on the verification results. transmitting a request for attestation to a data processing, DP, accelerator, wherein the DP accelerator generates an attestation key pair having a public attestation key, PK_ATT, and a private attestation key, SK_ATT, in response to the request for attestation; receiving at a host system an encrypted PK_ATT signed using a private root key, SK_RK, of the DP accelerator from the DP accelerator over a bus, wherein the private root key is preconfigured and stored in a secure storage area during manufacturing of the DP accelerator; verifying the PK_ATT using a public root key, PK_RK, associated with the DP accelerator; in response to successfully verifying the PK_ATT, transmitting a kernel identifier, ID, to the DP accelerator to request attestation of a kernel object stored in the DP accelerator; in response to receiving a signed kernel digest corresponding to the kernel object from the DP accelerator, verifying the kernel digest using the PK_ATT, wherein the kernel digest is signed using the SK_ATT corresponding to the PK_ATT; and sending the verification results to the DP accelerator for the DP accelerator to access the kernel object based on the verification results.
A method for forming fuel and lubricant products, comprising: exposing a feedstock comprising 5 to 50 vol% of ethylene to a catalyst comprising a zeolite with 10-member rings under effective oligomerization conditions to produce an oligomerized effluent, wherein the feedstock consists of an off-gas from a fluid catalytic cracking process, wherein the off-gas comprises H 2 S, organic sulfur, and/or other sulfur compounds, and wherein the oligomerized effluent comprises organic sulfur in an amount of at least 25 wppm; hydroprocessing at least a portion of the oligomerized effluent under effective hydroprocessing conditions to form a hydroprocessed effluent, wherein hydroprocessing at least a portion of the oligomerized effluent comprises hydrotreating at least a portion of the oligomerized effluent under hydrotreating conditions including temperatures of 200°C to 450°C, pressures of 250 psig (1.8 MPag) to 5000 psig (34.6 MPag), liquid hourly space velocities (LHSV) of 0.1 hr -1 to 10 hr -1 , and hydrogen treat rates of 200 scf/B (35.6 m 3 /m 3 ) to 10,000 scf/B (1781 m 3 /m 3 ); and separating the hydroprocessed effluent to form a fraction having a boiling point of 350°F (177°C) or less, one or more lubricant base oil fractions, and at least one diesel fuel fraction having a lower boiling range than at least one lubricant base oil fraction. exposing a feedstock comprising 5 to 50 vol% of ethylene to a catalyst comprising a zeolite with 10-member rings under effective oligomerization conditions to produce an oligomerized effluent, wherein the feedstock consists of an off-gas from a fluid catalytic cracking process, wherein the off-gas comprises H 2 S, organic sulfur, and/or other sulfur compounds, and wherein the oligomerized effluent comprises organic sulfur in an amount of at least 25 wppm; hydroprocessing at least a portion of the oligomerized effluent under effective hydroprocessing conditions to form a hydroprocessed effluent, wherein hydroprocessing at least a portion of the oligomerized effluent comprises hydrotreating at least a portion of the oligomerized effluent under hydrotreating conditions including temperatures of 200°C to 450°C, pressures of 250 psig (1.8 MPag) to 5000 psig (34.6 MPag), liquid hourly space velocities (LHSV) of 0.1 hr -1 to 10 hr -1 , and hydrogen treat rates of 200 scf/B (35.6 m 3 /m 3 ) to 10,000 scf/B (1781 m 3 /m 3 ); and separating the hydroprocessed effluent to form a fraction having a boiling point of 350°F (177°C) or less, one or more lubricant base oil fractions, and at least one diesel fuel fraction having a lower boiling range than at least one lubricant base oil fraction.
A die package (150; 100; 160; 180; 182; 410; 440; 1100) comprising: a die (152; 120; 162a-d; 170; 416) having a plurality of connection pads; a die substrate (154; 102; 418) supporting a plurality of connection elements; a first lead (156; 110; 164a; 166a; 176; 412) having a first metal core with a first metal core diameter, a first dielectric layer surrounding said first metal core having a first dielectric thickness, and a first outer metal layer surrounding said first dielectric layer, said first outer metal layer attached to a first groundplane; and a second lead (156; 112; 164b; 166b; 176; 414) having a second metal core with a second metal core diameter, a second dielectric layer surrounding said second metal core having a second dielectric thickness, and a second outer metal layer surrounding said second dielectric layer, said second outer metal layer attached to a second groundplane; such that susceptibility to electromagnetic interference EMI and crosstalk between the first and second leads are reduced. a die (152; 120; 162a-d; 170; 416) having a plurality of connection pads; a die substrate (154; 102; 418) supporting a plurality of connection elements; a first lead (156; 110; 164a; 166a; 176; 412) having a first metal core with a first metal core diameter, a first dielectric layer surrounding said first metal core having a first dielectric thickness, and a first outer metal layer surrounding said first dielectric layer, said first outer metal layer attached to a first groundplane; and a second lead (156; 112; 164b; 166b; 176; 414) having a second metal core with a second metal core diameter, a second dielectric layer surrounding said second metal core having a second dielectric thickness, and a second outer metal layer surrounding said second dielectric layer, said second outer metal layer attached to a second groundplane; such that susceptibility to electromagnetic interference EMI and crosstalk between the first and second leads are reduced.
A radiation detector , comprising: a photoelectric conversion substrate converting light into an electrical signal; and a scintillator layer contacting the photoelectric conversion substrate and converting radiation incident from the outside into light, wherein the scintillator layer is a fluorescent substance of CsI containing Tl as an activator, the CsI is a halide, the scintillator layer includes a central portion and a peripheral portion , the central portion is a central region of a formation region of the scintillator layer , the peripheral portion is an outer circumferential region of the formation region of the scintillator layer , a concentration of the activator inside the fluorescent substance in an in-plane direction of the scintillator layer in the central portion is higher than a concentration of the activator inside the fluorescent substance in an in-plane direction of the scintillator layer in the peripheral portion , characterized in that the concentration of the activator inside the fluorescent substance is 1.6 mass% ± 0.4 mass%. a photoelectric conversion substrate converting light into an electrical signal; and a scintillator layer contacting the photoelectric conversion substrate and converting radiation incident from the outside into light, wherein the scintillator layer is a fluorescent substance of CsI containing Tl as an activator, the CsI is a halide, the scintillator layer includes a central portion and a peripheral portion , the central portion is a central region of a formation region of the scintillator layer , the peripheral portion is an outer circumferential region of the formation region of the scintillator layer , a concentration of the activator inside the fluorescent substance in an in-plane direction of the scintillator layer in the central portion is higher than a concentration of the activator inside the fluorescent substance in an in-plane direction of the scintillator layer in the peripheral portion , characterized in that the concentration of the activator inside the fluorescent substance is 1.6 mass% ± 0.4 mass%.
A method of maintaining a sterile environment of a working chamber that contains a resin component, comprising: a step (a) of introducing hydrogen peroxide into the working chamber ; a step (b) of introducing air into the working chamber through a filter after completion of the step (a); a step (c) of introducing the ozone into the working chamber , (c1) wherein the ozone is generated by irradiating the air with ultraviolet (c11) having a peak wavelength of from 160 nm to less than 200 nm (c12) either upstream of the filter or inside the working chamber ; and a step (d) of decomposing the ozone introduced into the working chamber into oxygen radicals, wherein step (d) includes a step (d1) of emitting visible light of a wavelength of 450 nm to 800 nm into the working chamber . a step (a) of introducing hydrogen peroxide into the working chamber ; a step (b) of introducing air into the working chamber through a filter after completion of the step (a); a step (c) of introducing the ozone into the working chamber , (c1) wherein the ozone is generated by irradiating the air with ultraviolet (c11) having a peak wavelength of from 160 nm to less than 200 nm (c12) either upstream of the filter or inside the working chamber ; and (c11) having a peak wavelength of from 160 nm to less than 200 nm (c12) either upstream of the filter or inside the working chamber ; and a step (d) of decomposing the ozone introduced into the working chamber into oxygen radicals, wherein step (d) includes a step (d1) of emitting visible light of a wavelength of 450 nm to 800 nm into the working chamber .
A method in a wireless device for handling messages in a communications system , wherein the wireless device is arranged to send small amounts of data, the method comprising: conveying an UpLink, UL, message over a radio interface to a Radio Access Network, RAN, node ; receiving a response to the UL message from the RAN node , wherein the response comprises a message waiting indication of a DownLink, DL, message addressed and waiting to be transmitted to the wireless device , wherein the message waiting indication is received from the RAN node as part of radio interface signaling for the UL message and not using a radio bearer; and when the message waiting indication of the DL message has been received, handling the received indication by establishing a radio bearer in the communications system ; and retrieving at least part of the waiting DL message from a node where the DL message has been stored via the established radio bearer. conveying an UpLink, UL, message over a radio interface to a Radio Access Network, RAN, node ; receiving a response to the UL message from the RAN node , wherein the response comprises a message waiting indication of a DownLink, DL, message addressed and waiting to be transmitted to the wireless device , wherein the message waiting indication is received from the RAN node as part of radio interface signaling for the UL message and not using a radio bearer; and when the message waiting indication of the DL message has been received, handling the received indication by establishing a radio bearer in the communications system ; and retrieving at least part of the waiting DL message from a node where the DL message has been stored via the established radio bearer.
A method for operating a Controller Area Network, CAN, transceiver, the method comprising: detecting phase information related to a CAN data frame that is transmitted by the CAN transceiver wherein the phase information indicates a data phase that follows an arbitration phase and wherein the CAN transceiver has exclusive access to a CAN bus during the data phase; and in response to the phase information, switching from a first transmitter configuration with a lower transmission data rate to a second transmitter with a higher transmission data rate of the CAN transceiver within a bit interval for use in transmitting subsequent bits of the CAN data frame; wherein the switching comprises switching from the first transmitter to the second transmitter within the bit interval for use in transmitting a first section of a particular bit of the CAN data frame and switching from the second transmitter to the first transmitter within the bit interval for use in transmitting a second section of the particular bit of the CAN data frame.. detecting phase information related to a CAN data frame that is transmitted by the CAN transceiver wherein the phase information indicates a data phase that follows an arbitration phase and wherein the CAN transceiver has exclusive access to a CAN bus during the data phase; and in response to the phase information, switching from a first transmitter configuration with a lower transmission data rate to a second transmitter with a higher transmission data rate of the CAN transceiver within a bit interval for use in transmitting subsequent bits of the CAN data frame; wherein the switching comprises switching from the first transmitter to the second transmitter within the bit interval for use in transmitting a first section of a particular bit of the CAN data frame and switching from the second transmitter to the first transmitter within the bit interval for use in transmitting a second section of the particular bit of the CAN data frame..
Module for dispensing tickets from a booklet of pre-cut tickets, the device comprising: - a frame configured to retain a plurality of cassettes , each cassette comprising a housing for housing a booklet of tickets, preferably the cassettes of said plurality of cassettes being superimposed on each other along a stacking axis , - a robot movable with respect to said frame characterized in that the mobile robot is configured to selectively couple with one of said plurality of cassettes ; the robot comprising: - an actuator configured, when the robot is coupled to one of the cassettes , to actuate a cassette dispensing mechanism so as to extract an end portion of the booklet from the coupled cassette; - a receiving device configured to receive said terminal portion of the booklet; and - a separating device configured to operate a separation along a separation plane ; wherein the receiving device and the dispensing mechanism are jointly configured to: align a separation line of the end portion of the booklet with the separation plane of the separation device ; and/or tensioning said end portion to allow separation of the ticket by the separation device . - a frame configured to retain a plurality of cassettes , each cassette comprising a housing for housing a booklet of tickets, preferably the cassettes of said plurality of cassettes being superimposed on each other along a stacking axis , - a robot movable with respect to said frame characterized in that the mobile robot is configured to selectively couple with one of said plurality of cassettes ; the robot comprising: - an actuator configured, when the robot is coupled to one of the cassettes , to actuate a cassette dispensing mechanism so as to extract an end portion of the booklet from the coupled cassette; - a receiving device configured to receive said terminal portion of the booklet; and - a separating device configured to operate a separation along a separation plane ; wherein the receiving device and the dispensing mechanism are jointly configured to: align a separation line of the end portion of the booklet with the separation plane of the separation device ; and/or tensioning said end portion to allow separation of the ticket by the separation device . - an actuator configured, when the robot is coupled to one of the cassettes , to actuate a cassette dispensing mechanism so as to extract an end portion of the booklet from the coupled cassette; - a receiving device configured to receive said terminal portion of the booklet; and - a separating device configured to operate a separation along a separation plane ;