mhurhangee/patent-ind-claim-en huggingface dataset:
A near-eye display device comprising: a first illumination module (36; 520, 530) that, when in operation, emits first light of a first frequency range toward an environment of the near-eye display device ; a second illumination module that, when in operation, emits a second light of the first frequency range toward the environment of the near-eye display device; a single, multi-spectrum imaging sensor that, when in operation, receives the first light of the first frequency range reflected by the environment, the second light of the first frequency range reflected by the environment, and at least a portion of a third light of a second frequency range; and a processor that, when in operation, determines a depth map based on the received first light, detects a gesture made by the body part of a user based on the received second light, and that tracks a position and/or orientation of a head of the user based on the received third light. a first illumination module (36; 520, 530) that, when in operation, emits first light of a first frequency range toward an environment of the near-eye display device ; a second illumination module that, when in operation, emits a second light of the first frequency range toward the environment of the near-eye display device; a single, multi-spectrum imaging sensor that, when in operation, receives the first light of the first frequency range reflected by the environment, the second light of the first frequency range reflected by the environment, and at least a portion of a third light of a second frequency range; and a processor that, when in operation, determines a depth map based on the received first light, detects a gesture made by the body part of a user based on the received second light, and that tracks a position and/or orientation of a head of the user based on the received third light.
A paging method, applied in a base station, wherein the method comprises: receiving , from a core network device, a paging message of user equipment, wherein the paging message comprises a user identity of the user equipment; calculating a paging location of the user equipment according to the user identity of the user equipment; determining a coverage level of the user equipment; sending an air interface paging message to the user equipment according to the coverage level of the user equipment, and sending, in the paging location, paging scheduling information, wherein the paging scheduling information is used to indicate a location in which the air interface paging message is sent, and the air interface paging message comprises the paging message of the user equipment; characterised by re-determining the coverage level of the user equipment, if the base station receives, from the core network device, retransmission indication information that is used to instruct to re-send a paging message of the user equipment; and sending the air interface paging message to the user equipment according to the re-determined coverage level of the user equipment. receiving , from a core network device, a paging message of user equipment, wherein the paging message comprises a user identity of the user equipment; calculating a paging location of the user equipment according to the user identity of the user equipment; determining a coverage level of the user equipment; sending an air interface paging message to the user equipment according to the coverage level of the user equipment, and sending, in the paging location, paging scheduling information, wherein the paging scheduling information is used to indicate a location in which the air interface paging message is sent, and the air interface paging message comprises the paging message of the user equipment; characterised by re-determining the coverage level of the user equipment, if the base station receives, from the core network device, retransmission indication information that is used to instruct to re-send a paging message of the user equipment; and sending the air interface paging message to the user equipment according to the re-determined coverage level of the user equipment.
An endoscopic system for use in a light deficient environment comprising: an imaging device comprising: a tube; one or more image sensors; and a lens assembly comprising at least one optical element corresponding to at least one of the one or more image sensors; a display for a user to visualize a scene; an image signal processing controller; a light engine, wherein the light engine comprises: an illumination source generating a plurality of pulses of electromagnetic radiation according to a pulsing schedule; and a lumen transmitting the plurality of pulses of electromagnetic radiation to a distal tip of an endoscope , wherein the pulsing schedule includes pulsing different wavelengths for generating an RGB image, and further includes pulsing a grid array to be overlaid on the RGB image. an imaging device comprising: a tube; one or more image sensors; and a lens assembly comprising at least one optical element corresponding to at least one of the one or more image sensors; a tube; one or more image sensors; and a lens assembly comprising at least one optical element corresponding to at least one of the one or more image sensors; a display for a user to visualize a scene; an image signal processing controller; a light engine, wherein the light engine comprises: an illumination source generating a plurality of pulses of electromagnetic radiation according to a pulsing schedule; and a lumen transmitting the plurality of pulses of electromagnetic radiation to a distal tip of an endoscope , wherein the pulsing schedule includes pulsing different wavelengths for generating an RGB image, and further includes pulsing a grid array to be overlaid on the RGB image. an illumination source generating a plurality of pulses of electromagnetic radiation according to a pulsing schedule; and a lumen transmitting the plurality of pulses of electromagnetic radiation to a distal tip of an endoscope , wherein the pulsing schedule includes pulsing different wavelengths for generating an RGB image, and further includes pulsing a grid array to be overlaid on the RGB image.
A method comprising: providing a plurality of data signals and at least one supervisory signal; combining the supervisory signal with the data signals on an optical transmission path; the method characterized by : polarization modulating the at least one supervisory signal so that the supervisory signal has an average degree of polarization, DOP, of about zero in the walk-off time between the data signals and the supervisory signal; and wherein the data signals, of the combined supervisory signal and data signals, have a data rate that is nominally higher than the data rate of the supervisory signal. providing a plurality of data signals and at least one supervisory signal; combining the supervisory signal with the data signals on an optical transmission path; the method characterized by : polarization modulating the at least one supervisory signal so that the supervisory signal has an average degree of polarization, DOP, of about zero in the walk-off time between the data signals and the supervisory signal; and wherein the data signals, of the combined supervisory signal and data signals, have a data rate that is nominally higher than the data rate of the supervisory signal. polarization modulating the at least one supervisory signal so that the supervisory signal has an average degree of polarization, DOP, of about zero in the walk-off time between the data signals and the supervisory signal; and wherein the data signals, of the combined supervisory signal and data signals, have a data rate that is nominally higher than the data rate of the supervisory signal.
Lithium-sulfur accumulator comprising at least one electrochemical cell comprising a positive electrode comprising, as active material, at least one sulfur-containing material, a negative electrode and an electrolyte conducting lithium ions disposed between said negative electrode and said positive electrode, characterised in that the negative electrode consists solely of an active material, which is a lithium and calcium alloy, wherein the calcium is present in the alloy to the extent of 2% to 34% atomic.
A method of manufacturing a web-shaped monolithic foil with incorporated security features from a web-shaped multi-layered foil , wherein the multi-layered foil at least comprises a carrier layer , a cover layer and a liner disposed between the carrier layer and the cover layer , the method comprising the following steps: separating the carrier layer from the liner ; separating the cover layer from the liner ; applying at least one security feature to a first surface of the carrier layer ; arranging the cover layer on the first surface of the carrier layer ; and inseparably connecting the carrier layer with the cover layer , wherein a web-shaped monolithic foil with at least one incorporated security feature is generated. separating the carrier layer from the liner ; separating the cover layer from the liner ; applying at least one security feature to a first surface of the carrier layer ; arranging the cover layer on the first surface of the carrier layer ; and inseparably connecting the carrier layer with the cover layer , wherein a web-shaped monolithic foil with at least one incorporated security feature is generated.
A method of manufacturing an organic light emitting display device, comprising: forming a bank layer on a substrate having a plurality of sub-pixels (SP1, SP2, SP3) at a boundary portion between adjacent sub-pixels (SP1, SP2, SP3); laminating a photoresist film on the bank layer ; forming a photoresist pattern in an area except for predetermined sub-pixels (SP1, SP2, SP3) by irradiating light on the photoresist film ; depositing an organic emission layer in the predetermined sub-pixel area exposed by the photoresist pattern ; and removing the photoresist pattern ; wherein the step of removing the photoresist pattern includes inverting the substrate such that the deposited organic emission layer is disposed in a lower portion, and in the inverted state, removing the photoresist pattern ; characterized in that the step of forming the photoresist pattern includes inverting the substrate such that the photoresist film is disposed in a lower portion, and in the inverted state, removing an irradiated or a non-irradiated portion of the photoresist film for forming the photoresist pattern forming a bank layer on a substrate having a plurality of sub-pixels (SP1, SP2, SP3) at a boundary portion between adjacent sub-pixels (SP1, SP2, SP3); laminating a photoresist film on the bank layer ; forming a photoresist pattern in an area except for predetermined sub-pixels (SP1, SP2, SP3) by irradiating light on the photoresist film ; depositing an organic emission layer in the predetermined sub-pixel area exposed by the photoresist pattern ; and removing the photoresist pattern ; wherein the step of removing the photoresist pattern includes inverting the substrate such that the deposited organic emission layer is disposed in a lower portion, and in the inverted state, removing the photoresist pattern ; characterized in that the step of forming the photoresist pattern includes inverting the substrate such that the photoresist film is disposed in a lower portion, and in the inverted state, removing an irradiated or a non-irradiated portion of the photoresist film for forming the photoresist pattern
An isolated chimeric or humanized antibody, wherein the antibody specifically binds (+) methamphetamine and comprises: (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 5; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:6; (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 7; (d) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 8; (e) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 9; and (f) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:10. (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 5; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO:6; (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 7; (d) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 8; (e) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 9; and (f) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO:10.
A wheel locking mechanism , suitable for locking a wheel of a pushchair, the mechanism comprising: a rotatable member , adapted to be mounted on the hub of a wheel, whereby the rotatable member is co-rotatable with, and by rotation of, the wheel, said rotatable member comprising a locking surface ; a non-rotatable member , comprising a locking pin adapted to selectively cooperate with the locking surface of the rotatable member, whereby the relative positions of the rotatable and non-rotatable members are lockable; wherein the non-rotatable member comprises a semi-rotatable portion and a non-rotatable housing , wherein the semi-rotatable portion is mounted on, and is semi-rotatable with respect to, the non-rotatable housing; wherein the semi-rotatable portion includes a ramped surface , adapted to face into the non-rotatable housing, wherein the ramped surface extends in the direction of rotation of the semi-rotatable portion; and wherein the locking pin is pivotally and slidably mounted with respect to the ramped surface. a rotatable member , adapted to be mounted on the hub of a wheel, whereby the rotatable member is co-rotatable with, and by rotation of, the wheel, said rotatable member comprising a locking surface ; a non-rotatable member , comprising a locking pin adapted to selectively cooperate with the locking surface of the rotatable member, whereby the relative positions of the rotatable and non-rotatable members are lockable; wherein the non-rotatable member comprises a semi-rotatable portion and a non-rotatable housing , wherein the semi-rotatable portion is mounted on, and is semi-rotatable with respect to, the non-rotatable housing; wherein the semi-rotatable portion includes a ramped surface , adapted to face into the non-rotatable housing, wherein the ramped surface extends in the direction of rotation of the semi-rotatable portion; and wherein the locking pin is pivotally and slidably mounted with respect to the ramped surface.
An interference control method of a base station of a mobile communication system, the method comprising: transmitting, to a terminal, radio resource control, RRC, information for configuring information for at least one cell-specific reference signal, CRS, resource, transmitting, to the terminal, control information including quasi co-located, QCL, information, wherein the QCL information maps to one of the at least one CRS resource, wherein the one CRS resource has a QCL relationship with a demodulation reference signal, DMRS, of an interference signal. transmitting, to a terminal, radio resource control, RRC, information for configuring information for at least one cell-specific reference signal, CRS, resource, transmitting, to the terminal, control information including quasi co-located, QCL, information, wherein the QCL information maps to one of the at least one CRS resource, wherein the one CRS resource has a QCL relationship with a demodulation reference signal, DMRS, of an interference signal.
A wireless power system , comprising: a bridge ; a coil (Ls) coupled between first and second inputs of the bridge; a tank capacitor (Ctank) coupled between first and second outputs of the bridge; a regulator ; a sense resistor (Rsense) having a first terminal coupled to the first output of the bridge and a second terminal coupled to an input of the regulator; a switching circuit having first and second inputs respectively coupled to the first and second terminals of the sense resistor; a gain stage having first and second inputs capacitively coupled to first and second outputs of the switching circuit; an analog to digital converter -ADC- configured to digitize output of the gain stage by comparing the output of the gain stage to first and second differential reference voltages (VREFP, VREFN); and a reference voltage generator comprising a temperature independent current source coupled to source current to a reference resistor (R2), the reference resistor having a resistance that is a multiple of a resistance of the sense resistor and that tracks the resistance of the sense resistor across temperature variation, wherein the first differential reference voltage is formed across the reference resistor. a bridge ; a coil (Ls) coupled between first and second inputs of the bridge; a tank capacitor (Ctank) coupled between first and second outputs of the bridge; a regulator ; a sense resistor (Rsense) having a first terminal coupled to the first output of the bridge and a second terminal coupled to an input of the regulator; a switching circuit having first and second inputs respectively coupled to the first and second terminals of the sense resistor; a gain stage having first and second inputs capacitively coupled to first and second outputs of the switching circuit; an analog to digital converter -ADC- configured to digitize output of the gain stage by comparing the output of the gain stage to first and second differential reference voltages (VREFP, VREFN); and a reference voltage generator comprising a temperature independent current source coupled to source current to a reference resistor (R2), the reference resistor having a resistance that is a multiple of a resistance of the sense resistor and that tracks the resistance of the sense resistor across temperature variation, wherein the first differential reference voltage is formed across the reference resistor.
An ionization gauge comprising: a) a cylindrical cathode cage having a base , the base having an opening ; b) a polymer vacuum housing (110a-f, 1030) surrounding the cylindrical cathode cage ; c) a cylindrical magnet surrounding the polymer vacuum housing (110a-f, 1030); d) an anode feedthrough pin disposed directly through the polymer vacuum housing (110a-f, 1030) and disposed through the opening of the base of the cylindrical cathode cage ; e) a cathode feedthrough pin (140a-f, 1015) disposed directly through the polymer housing and electrically coupled to the cylindrical cathode cage . a) a cylindrical cathode cage having a base , the base having an opening ; b) a polymer vacuum housing (110a-f, 1030) surrounding the cylindrical cathode cage ; c) a cylindrical magnet surrounding the polymer vacuum housing (110a-f, 1030); d) an anode feedthrough pin disposed directly through the polymer vacuum housing (110a-f, 1030) and disposed through the opening of the base of the cylindrical cathode cage ; e) a cathode feedthrough pin (140a-f, 1015) disposed directly through the polymer housing and electrically coupled to the cylindrical cathode cage .
A lubricant composition suitable for use in drilling operations, comprising: a) ≥ 90 wt% of at least one base oil composition, the base oil composition comprising 1.0 to 15.0 wt% water, based on the total weight of the base oil and the water, and b) from 0.5 to 10.0 wt% of a friction-reducing composition consisting of at least one compound represented by Formula I: wherein X is H; R 1 is selected from branched or unbranched C 10 to C 30 alkyl and alkenyl groups and combinations thereof; R 2 , R 3 and R 4 are H; and wherein the weight percentages of base oil composition and friction-reducing composition are based on the total weight of the base oil composition and the friction-reducing composition. a) ≥ 90 wt% of at least one base oil composition, the base oil composition comprising 1.0 to 15.0 wt% water, based on the total weight of the base oil and the water, and b) from 0.5 to 10.0 wt% of a friction-reducing composition consisting of at least one compound represented by Formula I: wherein X is H; R 1 is selected from branched or unbranched C 10 to C 30 alkyl and alkenyl groups and combinations thereof; R 2 , R 3 and R 4 are H; and wherein the weight percentages of base oil composition and friction-reducing composition are based on the total weight of the base oil composition and the friction-reducing composition. wherein X is H; R 1 is selected from branched or unbranched C 10 to C 30 alkyl and alkenyl groups and combinations thereof; R 2 , R 3 and R 4 are H; and wherein the weight percentages of base oil composition and friction-reducing composition are based on the total weight of the base oil composition and the friction-reducing composition.
A carbon dioxide reduction system comprising: an absorption tower configured to bring a source gas containing carbon dioxide into contact with an absorption liquid composed of an aqueous solution containing at least one amine compound so that the carbon dioxide is absorbed in the absorption liquid; an electrolysis apparatus for electrolyzing the carbon dioxide absorbed in the absorption liquid in the absorption tower ; a circulation line (13/14) for circulating the absorption liquid between the absorption tower and the electrolysis apparatus , wherein the circulation line (13/14) includes an absorption liquid supply line for supplying the absorption liquid in the electrolysis apparatus to the absorption tower ; an impurity removal apparatus for removing an impurity which is a component other than the at least one amine compound and water from the absorption liquid flowing through the absorption liquid supply line ; an absorption liquid collection line for supplying a part of the absorption liquid circulating in the absorption liquid supply line from the absorption liquid supply line to the impurity removal apparatus ; and an absorption liquid return line for returning the part of the absorption liquid from which the impurity was removed by the impurity removal apparatus from the impurity removal apparatus to the absorption liquid supply line . an absorption tower configured to bring a source gas containing carbon dioxide into contact with an absorption liquid composed of an aqueous solution containing at least one amine compound so that the carbon dioxide is absorbed in the absorption liquid; an electrolysis apparatus for electrolyzing the carbon dioxide absorbed in the absorption liquid in the absorption tower ; a circulation line (13/14) for circulating the absorption liquid between the absorption tower and the electrolysis apparatus , wherein the circulation line (13/14) includes an absorption liquid supply line for supplying the absorption liquid in the electrolysis apparatus to the absorption tower ; an impurity removal apparatus for removing an impurity which is a component other than the at least one amine compound and water from the absorption liquid flowing through the absorption liquid supply line ; an absorption liquid collection line for supplying a part of the absorption liquid circulating in the absorption liquid supply line from the absorption liquid supply line to the impurity removal apparatus ; and an absorption liquid return line for returning the part of the absorption liquid from which the impurity was removed by the impurity removal apparatus from the impurity removal apparatus to the absorption liquid supply line .