mhurhangee/patent-ind-claim-en huggingface dataset:
A coating system comprising: (a) a first coating layer having a CIELAB L* value of no more than 40 and comprising: (i) a film-forming resin; and (ii) a visibly absorbing infrared transparent pigment; and (b) a second coating layer deposited beneath at least a portion of the first coating layer and comprising: (i) a film-forming resin; (ii) a thin flake metal or metal alloy infrared reflective pigment; and (iii) a visibly absorbing infrared transparent pigment, wherein the first coating layer and the second coating layer have a contrast ratio (L* second /L* first ) of 0.8:1 to 1.6:1; wherein the coating system has a % total solar reflectance (%TSR) of at least 25%; wherein the second coating layer has a %TSR of at least 25%, wherein CIELAB L* values are measured using a Gretag MacBeth ColorEye 7000 A and %TSR values are calculated using the methods of ASTM E 903 and ASTM E 891 from data measured with a Cary 50 (Varian) spectrophotometer over the wavelength range of 300-2500 nanometers. (a) a first coating layer having a CIELAB L* value of no more than 40 and comprising: (i) a film-forming resin; and (ii) a visibly absorbing infrared transparent pigment; and (i) a film-forming resin; and (ii) a visibly absorbing infrared transparent pigment; and (b) a second coating layer deposited beneath at least a portion of the first coating layer and comprising: (i) a film-forming resin; (ii) a thin flake metal or metal alloy infrared reflective pigment; and (iii) a visibly absorbing infrared transparent pigment, (i) a film-forming resin; (ii) a thin flake metal or metal alloy infrared reflective pigment; and (iii) a visibly absorbing infrared transparent pigment,
Data storage method for temporal control of access to data of a data management system comprising a server , the method being executed by the server, the server comprising an indexed list of encryption keys, each index being associated with a unique encryption key, each encryption key being associated with one and the same predefined validity period, an index referred to as the current index being initially predetermined, the method comprising the following steps: - receiving a message comprising data to be stored in the data management system, as well as information concerning a desired retention period for this data, - determining an encryption index, depending on the desired retention period, on the validity period of an encryption key, on the current index and on the size of the indexed list of encryption keys, - encrypting the received data by means of the encryption key associated with the encryption index, - determining , depending on the received data and on the encryption key used for the preceding step of encrypting this data, an authentication code, and - storing said encrypted data in association with the encryption index and the authentication code, the current index being periodically updated, the update period (T) being the same as the validity period of an encryption key, the update comprising: - deleting and replacing the encryption key associated with the current index with a new unique encryption key, - circularly incrementing the current index. - receiving a message comprising data to be stored in the data management system, as well as information concerning a desired retention period for this data, - determining an encryption index, depending on the desired retention period, on the validity period of an encryption key, on the current index and on the size of the indexed list of encryption keys, - encrypting the received data by means of the encryption key associated with the encryption index, - determining , depending on the received data and on the encryption key used for the preceding step of encrypting this data, an authentication code, and - storing said encrypted data in association with the encryption index and the authentication code, - deleting and replacing the encryption key associated with the current index with a new unique encryption key, - circularly incrementing the current index.
A method for operating a computer tomograph , which has a rotationally fixed gantry , in which a plurality of X-ray emitters , radiation influencing means , and X-ray detectors are rigidly arranged, wherein the X-ray emitters have several electron emitters cooperating with a common anode , and sectional images are formed from projection images of a changing object to be examined , wherein a first set of projection images, recorded from different projection directions, is generated, and at least one additional set of projection images is recorded, wherein the projection directions at least partially correspond to the projection directions of the first set of projection images, characterized in that the degree of conformity between at least two respective projection images recorded from corresponding projection directions is determined and further projection images are generated, wherein the frequency of the selected projection directions is a function of the level of the conformity of the projection images recorded from the respective projection directions at consecutive points in time.
Arrangement, with a motor vehicle door portal (TP) and a motor vehicle door (ST) and at least one locking device for locking the motor vehicle door (ST), in particular a motor vehicle pivoting door with a lifting function, to the motor vehicle door portal (TP), comprising: - a first locking part for fastening to the door (ST), and - a second locking part for fastening to the door portal (TP), - wherein the first locking part and the second locking part are configured in order to be locked together, characterized in that - the first locking part and the second locking part are of substantially identical design. - a first locking part for fastening to the door (ST), and - a second locking part for fastening to the door portal (TP), - wherein the first locking part and the second locking part are configured in order to be locked together, characterized in that - the first locking part and the second locking part are of substantially identical design.
A method for producing a metal oxide nanoparticle-based T1-T2 dual-mode MRI contrast agent that has a core of T1 contrast material and a porous shell of T2 contrast material formed on the core, comprising the following steps: A) synthesizing metal oxide nanoparticles of T1 contrast material under inert gas environment; B) forming an epitaxial layer of metal oxide T2 contrast material on the surface of metal oxide nanoparticles of T1 contrast material under inert gas environment; C) maintaining the formation of the layer of metal oxide of T2 contrast material under dry air environment to form multilayer nanoparticles having a core and porous shell structure; and D) coating multilayer nanoparticles with a biocompatible polymer, wherein the metal oxide of T1 contrast material is manganese oxide and the metal oxide of T2 contrast material is iron oxide, and wherein the layer of metal oxide of T2 contrast material comprises the doped metal ions of T1 contrast material. A) synthesizing metal oxide nanoparticles of T1 contrast material under inert gas environment; B) forming an epitaxial layer of metal oxide T2 contrast material on the surface of metal oxide nanoparticles of T1 contrast material under inert gas environment; C) maintaining the formation of the layer of metal oxide of T2 contrast material under dry air environment to form multilayer nanoparticles having a core and porous shell structure; and D) coating multilayer nanoparticles with a biocompatible polymer,
A wireless networking method for an air conditioning system, comprising: reading, by an outdoor unit of the air conditioning system, a punched card to obtain first identification information of the outdoor unit represented by a punched card code on the punched card(S101); acquiring, by the outdoor unit, a connection request to connect to a wireless local area network (LAN) of the outdoor unit, which is sent by a device to be networked (S102) ; obtaining, by the outdoor unit, second identification information contained in the connection request according to the connection request, wherein the second identification information is obtained via the punched card and is from the device to be networked (S103); and connecting, by the outdoor unit, the device to be networked to the wireless LAN if it is verified that the second identification information matches with the first identification information(S104) . reading, by an outdoor unit of the air conditioning system, a punched card to obtain first identification information of the outdoor unit represented by a punched card code on the punched card(S101); acquiring, by the outdoor unit, a connection request to connect to a wireless local area network (LAN) of the outdoor unit, which is sent by a device to be networked (S102) ; obtaining, by the outdoor unit, second identification information contained in the connection request according to the connection request, wherein the second identification information is obtained via the punched card and is from the device to be networked (S103); and connecting, by the outdoor unit, the device to be networked to the wireless LAN if it is verified that the second identification information matches with the first identification information(S104) .
A system for use with a medical device configured for insertion within a patient, comprising: a signal generator configured to apply a plurality of drive signals, each having a unique frequency, across different pairs of electrodes of a medical device having a plurality of electrodes, wherein the plurality of drive signals are simultaneously applied; a measurement circuit configured to measure responses of the plurality of electrodes to the drive signals and generate a series of impedance values for the plurality of electrodes of the medical device; a contact assessment module configured to, for each electrode, compare a subsequent impedance value for an electrode to a baseline impedance value for the electrode and generate an output corresponding to a proximity of the electrode relative to tissue if the subsequent impedance value is greater than the baseline impedance value; and a display for displaying proximities of the electrodes relative to the tissue based on outputs received from the contact assessment module. a signal generator configured to apply a plurality of drive signals, each having a unique frequency, across different pairs of electrodes of a medical device having a plurality of electrodes, wherein the plurality of drive signals are simultaneously applied; a measurement circuit configured to measure responses of the plurality of electrodes to the drive signals and generate a series of impedance values for the plurality of electrodes of the medical device; a contact assessment module configured to, for each electrode, compare a subsequent impedance value for an electrode to a baseline impedance value for the electrode and generate an output corresponding to a proximity of the electrode relative to tissue if the subsequent impedance value is greater than the baseline impedance value; and a display for displaying proximities of the electrodes relative to the tissue based on outputs received from the contact assessment module.
A method of analysing a sample comprising a circulating microparticle, wherein the circulating microparticle is a membranous vesicle, wherein the circulating microparticle contains at least two fragments of genomic DNA, and wherein the method comprises: (a) preparing the sample for sequencing comprising linking at least two of the at least two fragments of genomic DNA to produce a set of at least two linked fragments of genomic DNA; and (b) sequencing each of the linked fragments in the set to produce at least two linked sequence reads. (a) preparing the sample for sequencing comprising linking at least two of the at least two fragments of genomic DNA to produce a set of at least two linked fragments of genomic DNA; and (b) sequencing each of the linked fragments in the set to produce at least two linked sequence reads.
A mobile apparatus mounted to a motor vehicle for detecting energized objects , comprising: two or more photonic sensors (101-1, 101-2, 901-1, 901-2), mounted to the motor vehicle , and coupled to a photo-receiver, wherein the photo-receiver is configured to generate a signal corresponding to an electric field detected by the two or more photonic sensors (101-1, 101-2, 901-1, 901-2) while the motor vehicle traverses an area ; a processor , coupled to the two or more photonic sensors (101-1, 101-2, 901-1, 901-2), configured to (i) digitize the signal to form electric field data, (ii) produce field strengths of the electric field using the electric field data , and (iii) analyze the field strengths to identify the presence of a hazardously energized object in the electric field, wherein the electric field data is analyzed based on an expected frequency pertaining to hazardous energy to locate an energized object proximate a street; and an indicator , coupled to the processor , configured to alert a user to a presence of the hazardously energized object in the electric field. two or more photonic sensors (101-1, 101-2, 901-1, 901-2), mounted to the motor vehicle , and coupled to a photo-receiver, wherein the photo-receiver is configured to generate a signal corresponding to an electric field detected by the two or more photonic sensors (101-1, 101-2, 901-1, 901-2) while the motor vehicle traverses an area ; a processor , coupled to the two or more photonic sensors (101-1, 101-2, 901-1, 901-2), configured to (i) digitize the signal to form electric field data, (ii) produce field strengths of the electric field using the electric field data , and (iii) analyze the field strengths to identify the presence of a hazardously energized object in the electric field, wherein the electric field data is analyzed based on an expected frequency pertaining to hazardous energy to locate an energized object proximate a street; and an indicator , coupled to the processor , configured to alert a user to a presence of the hazardously energized object in the electric field.
A method comprising: obtaining a bit mask from a predetermined set of three bit masks, wherein each mask in the predetermined set of three masks is associated with a different antenna configuration of three antenna configurations, wherein a first bit mask of the predetermined set of three bit masks is associated with a single antenna configuration, a second bit mask of the predetermined set of three bit masks is associated with a two antenna configuration, and a third bit mask of the predetemined set of three bit masks is associated with a four antenna configuration; and wherein a hamming distance between the first bit mask and the second bit mask is maximized; and masking a plurality of cyclic redundancy check bits to be transmitted with the obtained bit mask to thereby impart information regarding the antenna configuration associated with the obtained bit mask. obtaining a bit mask from a predetermined set of three bit masks, wherein each mask in the predetermined set of three masks is associated with a different antenna configuration of three antenna configurations, wherein a first bit mask of the predetermined set of three bit masks is associated with a single antenna configuration, a second bit mask of the predetermined set of three bit masks is associated with a two antenna configuration, and a third bit mask of the predetemined set of three bit masks is associated with a four antenna configuration; and wherein a hamming distance between the first bit mask and the second bit mask is maximized; and masking a plurality of cyclic redundancy check bits to be transmitted with the obtained bit mask to thereby impart information regarding the antenna configuration associated with the obtained bit mask.
A data transmission method, comprising: obtaining, by an optical line terminal, OLT, a first uplink transmission parameter of a first terminal corresponding to a first optical network unit, ONU, wherein the first uplink transmission parameter comprises an amount of data to be sent by the first terminal each time and a period for sending data by the first terminal ; determining, by the OLT based on the first uplink transmission parameter, a cycle period for performing data transmission with the first ONU, wherein each cycle period comprises an uplink time window and a downlink time window, the uplink time window comprises a first uplink transmission timeslot used by the first ONU to send uplink data, and the downlink time window is used by the OLT to send downlink data ; sending, by the OLT, an uplink grant message to the first ONU, wherein the uplink grant message is used to indicate the first uplink transmission timeslot of the first ONU in each cycle period ; and receiving, by the OLT in a first uplink transmission timeslot in a same cycle period, first uplink data sent by the first ONU, and sending first downlink data to the first ONU in a downlink time window in the same cycle period . obtaining, by an optical line terminal, OLT, a first uplink transmission parameter of a first terminal corresponding to a first optical network unit, ONU, wherein the first uplink transmission parameter comprises an amount of data to be sent by the first terminal each time and a period for sending data by the first terminal ; determining, by the OLT based on the first uplink transmission parameter, a cycle period for performing data transmission with the first ONU, wherein each cycle period comprises an uplink time window and a downlink time window, the uplink time window comprises a first uplink transmission timeslot used by the first ONU to send uplink data, and the downlink time window is used by the OLT to send downlink data ; sending, by the OLT, an uplink grant message to the first ONU, wherein the uplink grant message is used to indicate the first uplink transmission timeslot of the first ONU in each cycle period ; and receiving, by the OLT in a first uplink transmission timeslot in a same cycle period, first uplink data sent by the first ONU, and sending first downlink data to the first ONU in a downlink time window in the same cycle period .
A protein scaffold comprising a fibronectin type III module (FN3) domain, having a diversified C-CD-F-FG alternative surface capable of specifically binding to a target molecule, wherein the FN3 domain comprises an amino acid sequence at least 90% identical to SEQ ID NO:27.
A secondary battery , comprising: a negative electrode plate, including a negative current collector and a negative electrode film which is arranged on at least one surface of the negative current collector and includes a negative active material; a separation film, including a base material and a coating arranged on at least one surface of the base material; and an electrolyte, including an organic solvent, wherein the negative active material includes a silicon-based material and a carbon material; a thickness of the base material of the separation film is 7μm∼12μm; and the organic solvent includes ethylene carbonate, EC, and a weight ratio of the ethylene carbonate, EC, in the organic solvent is ≤20%, wherein the electrolyte further includes electrolyte salt, and the electrolyte salt includes lithium bisfluorosulfonimide, LiFSI, and lithium hexafluorophosphate, LiPF 6 ; and molarity of the lithium bisfluorosulfonimide, LiFSI, in the electrolyte is 0.8mol/L~1.3mol/L, and molarity of the lithium hexafluorophosphate, LiPF 6 , in the electrolyte is 0.15mol/L~0.4mol/L. a negative electrode plate, including a negative current collector and a negative electrode film which is arranged on at least one surface of the negative current collector and includes a negative active material; a separation film, including a base material and a coating arranged on at least one surface of the base material; and an electrolyte, including an organic solvent, wherein the negative active material includes a silicon-based material and a carbon material; a thickness of the base material of the separation film is 7μm∼12μm; and the organic solvent includes ethylene carbonate, EC, and a weight ratio of the ethylene carbonate, EC, in the organic solvent is ≤20%, wherein the electrolyte further includes electrolyte salt, and the electrolyte salt includes lithium bisfluorosulfonimide, LiFSI, and lithium hexafluorophosphate, LiPF 6 ; and molarity of the lithium bisfluorosulfonimide, LiFSI, in the electrolyte is 0.8mol/L~1.3mol/L, and molarity of the lithium hexafluorophosphate, LiPF 6 , in the electrolyte is 0.15mol/L~0.4mol/L.
A method of managing network entry and handover in a land-to-sea wireless network, the method comprising: computing , by a Customer Premises Equipment, CPE , a downlink Signal-to-Noise Ratio, SNR, metric associated with each of a plurality of antenna arrays of the CPE for each of a plurality of Base Transceiver Station, BTS, frequencies, based on a plurality of Time Division Duplex, TDD, messages collected for the plurality of BTS frequencies; computing , by the CPE , a downlink Aggregated Weighted SNR, AWSNR, metric for each of the plurality of BTS frequencies across each of the plurality of antenna arrays based on downlink SNR metrics associated with the plurality of antenna arrays; storing , by the CPE , the downlink AWSNR metric computed for each of the plurality of BTS frequencies across each of the plurality of antenna arrays in a plurality of downlink AWSNR buffers, wherein each of the plurality of downlink AWSNR buffers is indexed by an associated BTS frequency and an associated antenna array; assigning ranks , by the CPE , to at least one downlink AWSNR buffer from the plurality of downlink AWSNR buffers based on associated downlink AWSNR metrics; establishing , by the CPE , a pseudo-connection with a target BTS associated with a highest ranked downlink AWSNR buffer; and evaluating , by the CPE , the pseudo-connection with the target BTS for one of a network entry and a handover, based on at least one of uplink AWSNR metrics computed by the target BTS based on uplink SNR metrics associated with the target BTS or uplink Module and Coding Scheme, MCS, metrics associated with the CPE and the target BTS. computing , by a Customer Premises Equipment, CPE , a downlink Signal-to-Noise Ratio, SNR, metric associated with each of a plurality of antenna arrays of the CPE for each of a plurality of Base Transceiver Station, BTS, frequencies, based on a plurality of Time Division Duplex, TDD, messages collected for the plurality of BTS frequencies; computing , by the CPE , a downlink Aggregated Weighted SNR, AWSNR, metric for each of the plurality of BTS frequencies across each of the plurality of antenna arrays based on downlink SNR metrics associated with the plurality of antenna arrays; storing , by the CPE , the downlink AWSNR metric computed for each of the plurality of BTS frequencies across each of the plurality of antenna arrays in a plurality of downlink AWSNR buffers, wherein each of the plurality of downlink AWSNR buffers is indexed by an associated BTS frequency and an associated antenna array; assigning ranks , by the CPE , to at least one downlink AWSNR buffer from the plurality of downlink AWSNR buffers based on associated downlink AWSNR metrics; establishing , by the CPE , a pseudo-connection with a target BTS associated with a highest ranked downlink AWSNR buffer; and evaluating , by the CPE , the pseudo-connection with the target BTS for one of a network entry and a handover, based on at least one of uplink AWSNR metrics computed by the target BTS based on uplink SNR metrics associated with the target BTS or uplink Module and Coding Scheme, MCS, metrics associated with the CPE and the target BTS.