mhurhangee/patent-ind-claim-en huggingface dataset:
A tap comprising an in-line fluid purification system mounted within a fluid passageway of the tap for purifying a fluid or fluid flow, comprising: a jacket surrounding a fluid passageway, formed of a UV transmissive material; one or more UV-C LEDs placed within the jacket between a radial inner interface at a passageway boundary and a radial outer surface of the jacket, the jacket isolating the LED from the fluid in the passageway, the one or more UV-C LEDs are arranged for coupling UV radiation into the jacket, wherein the jacket is an optical element adapted to couple UV radiation from the UV-C LED around the outer periphery of the passageway by optimizing the distribution of the UV radiation emitted by the one or more UV-C LEDs, - wherein the jacket comprises a UV scattering material, and - wherein said system further comprising a UV reflecting coating on the outside periphery of the jacket, to reflect the UV radiation reaching the outside of the jacket back into the jacket. a jacket surrounding a fluid passageway, formed of a UV transmissive material; one or more UV-C LEDs placed within the jacket between a radial inner interface at a passageway boundary and a radial outer surface of the jacket, the jacket isolating the LED from the fluid in the passageway, the one or more UV-C LEDs are arranged for coupling UV radiation into the jacket, wherein the jacket is an optical element adapted to couple UV radiation from the UV-C LED around the outer periphery of the passageway by optimizing the distribution of the UV radiation emitted by the one or more UV-C LEDs, - wherein the jacket comprises a UV scattering material, and - wherein said system further comprising a UV reflecting coating on the outside periphery of the jacket, to reflect the UV radiation reaching the outside of the jacket back into the jacket. - wherein the jacket comprises a UV scattering material, and - wherein said system further comprising a UV reflecting coating on the outside periphery of the jacket, to reflect the UV radiation reaching the outside of the jacket back into the jacket.
An isolated monoclonal anti-RGMb antibody, or antigen-binding fragment thereof, that inhibits the interaction between RGMb and PD-L2, wherein the monoclonal anti-RGMb antibody or antigen-binding fragment thereof comprises: a) a polypeptide comprising three CDRs: CDR-L1, CDR-L2, and CDR-L3, wherein CDR-L1 consists of amino acid residues 44-54 of SEQ ID NO: 12, CDR-L2 consists of amino acid residues 70-76 of SEQ ID NO: 12, and CDR-L3 consists of amino acid residues 109-116 of SEQ ID NO: 12; and b) a polypeptide comprising three CDRs: CDR-H1, CDR-H2, and CDR-H3, wherein CDR-H1 consists of amino acid residues 50-54 of SEQ ID NO: 14, CDR-H2 consists of amino acid residues 69-85 of SEQ ID NO: 14, and CDR-H3 consists of amino acid residues 118-125 of SEQ ID NO: 14. a) a polypeptide comprising three CDRs: CDR-L1, CDR-L2, and CDR-L3, wherein CDR-L1 consists of amino acid residues 44-54 of SEQ ID NO: 12, CDR-L2 consists of amino acid residues 70-76 of SEQ ID NO: 12, and CDR-L3 consists of amino acid residues 109-116 of SEQ ID NO: 12; and b) a polypeptide comprising three CDRs: CDR-H1, CDR-H2, and CDR-H3,
A structure for collecting, concentrating and transmitting sunlight, comprising multiple sunlight collection structures, a sunlight collecting unit and a filtering valve designed to disperse light on a wave-length basis,, wherein a sunlight collecting structure transmits parallel light after it collects sunlight by performing total reflection of sunlight in parallel, which takes place when light is incident on the reflective surface above a certain threshold angle, and wherein sunlight is concentrated by combining collected sunlight in a multistage manner, wherein each of the sunlight collecting structures includes: a first paraboloidal reflector with a concave reflective surface; and a second paraboloidal reflector with a convex reflective surface, positioned inside the first paraboloidal reflector and sharing a same focus with the first paraboloidal reflector , and wherein an opening for transmitting sunlight reflected from the second paraboloidal reflector is formed at a lower portion of the first paraboloidal reflector , wherein the opening is equipped with a light transmitting pipe for transmitting sunlight collected through the first paraboloidal reflector and the second paraboloidal reflector , wherein the sunlight collecting unit collects sunlight transmitted from the respective light transmitting pipes , wherein a cover is formed in an upper opening of a first paraboloidal reflector of the sunlight collecting unit, wherein the cover has a plurality of pipe holes wherein the plurality of the light pipes are received and attached, and at a central axis of the cover , a second paraboloidal reflector is coupled and attached to a support . a first paraboloidal reflector with a concave reflective surface; and a second paraboloidal reflector with a convex reflective surface, positioned inside the first paraboloidal reflector and sharing a same focus with the first paraboloidal reflector , and wherein an opening for transmitting sunlight reflected from the second paraboloidal reflector is formed at a lower portion of the first paraboloidal reflector , wherein the opening is equipped with a light transmitting pipe for transmitting sunlight collected through the first paraboloidal reflector and the second paraboloidal reflector , wherein the sunlight collecting unit collects sunlight transmitted from the respective light transmitting pipes , wherein a cover is formed in an upper opening of a first paraboloidal reflector of the sunlight collecting unit, wherein the cover has a plurality of pipe holes wherein the plurality of the light pipes are received and attached, and at a central axis of the cover , a second paraboloidal reflector is coupled and attached to a support .
A method for calibrating a system comprising a photoelastic modulator (PEM) on a circular dichroism (CD) measurement instrument, the method comprising: scanning the control input voltage ( V in ) at a fixed wavelength ( λ meas ); and recording the CD scan, wherein the control input voltage ( V in ) determines the peak retardation (δ) at the fixed wavelength ( λ meas ), and wherein the method is repeated for two or more fixed wavelengths, wherein the method further comprises the step of fitting the results measured at each wavelength to a drive function (F); optionally wherein the method is automated; optionally further comprising performing an initial calibration of the system before a refined calibration measurement begins. scanning the control input voltage ( V in ) at a fixed wavelength ( λ meas ); and recording the CD scan, wherein the control input voltage ( V in ) determines the peak retardation (δ) at the fixed wavelength ( λ meas ), and wherein the method is repeated for two or more fixed wavelengths, wherein the method further comprises the step of fitting the results measured at each wavelength to a drive function (F); optionally wherein the method is automated; optionally further comprising performing an initial calibration of the system before a refined calibration measurement begins.
Method for motion planning of an autonomous vehicle , wherein a motion planning system determines a plurality of configuration samples through a configuration space using a sampling-based algorithm, wherein the configuration space represents surroundings of the vehicle, and wherein the configuration samples are determined in predefined sampling steps (t 1 , t 2 ), wherein a sequence of configuration samples defines a possible trajectory and/or path of the vehicle in the configuration space, wherein the plurality of configuration samples in each sampling step (t 1 , t 2 ), are determined in parallel by using at least one graphics processing unit of the motion planning system , wherein sequences of configuration samples are calculated from all configuration samples by predefined motion criteria, and wherein the calculated sequences of configuration samples are provided as vehicle trajectories for moving the vehicle in the surroundings, wherein the configuration space is rasterized in dependence on environmental information of the vehicle , wherein after each sampling step (t 1 , t 2 ) each grid field of the rasterized configuration space is rated according to an environmental criteria and every configuration sample in the respective grid field receives the rating according to the environmental criteria, wherein after each sampling step (t 1 , t 2 ), multiple sequences of configuration samples with the same end state are clustered and only one sequence of the multiple sequences is processed further in the following sampling steps, wherein the one sequence of the multiple sequences is selected by the predefined motion criteria.
A method for use in authenticating one or both of a container and a product packaged therein, comprising: obtaining an image of a first code carried by a container system comprising the container, wherein the first code has one or more elements and is representative of first information relating to one of the container and the product packaged in the container; determining at least one first contrast ratio between the one or more elements of the first code and a background of the first code; obtaining an image of a second code carried by the container system, wherein the second code has one or more elements and is representative of second information relating to the other of the container and the product packaged in the container; determining at least one second contrast ratio between the one or more elements of the second code and a background of the second code; and determining authenticity of one or both of the container and the product packaged therein based at least in part on at least one of the first and second contrast ratios. obtaining an image of a first code carried by a container system comprising the container, wherein the first code has one or more elements and is representative of first information relating to one of the container and the product packaged in the container; determining at least one first contrast ratio between the one or more elements of the first code and a background of the first code; obtaining an image of a second code carried by the container system, wherein the second code has one or more elements and is representative of second information relating to the other of the container and the product packaged in the container; determining at least one second contrast ratio between the one or more elements of the second code and a background of the second code; and determining authenticity of one or both of the container and the product packaged therein based at least in part on at least one of the first and second contrast ratios.
A method for starting a smart contract, applied in a blockchain node, the method comprising: running a timing start logic included in a chain code, the timing start logic configured to determine a start moment of a target smart contract, and start the target smart contract when a current moment reaches the start moment, wherein the timing start logic is further configured to, in response to a new block being detected in a blockchain, determine, according to a relationship between a time stamp included in the new block and the start moment, whether a current time reaches the start moment, and wherein when a difference between the time stamp and the start moment falls within a predetermined duration threshold, the timing start logic determines that the target smart contract is to be started. running a timing start logic included in a chain code, the timing start logic configured to determine a start moment of a target smart contract, and start the target smart contract when a current moment reaches the start moment, wherein the timing start logic is further configured to, in response to a new block being detected in a blockchain, determine, according to a relationship between a time stamp included in the new block and the start moment, whether a current time reaches the start moment, and wherein when a difference between the time stamp and the start moment falls within a predetermined duration threshold, the timing start logic determines that the target smart contract is to be started.
An information sending method performed in a guard-band mode and a standalone mode of a narrow band internet of things, NB-IoT, system, comprising: generating, by a network device, a first signal; and sending, on a first resource by the network device, the first signal to a terminal device, wherein the first resource comprises a first part of resource elements REs, and the first part of REs comprises all REs corresponding to an orthogonal frequency division multiplexing OFDM symbol 0, an OFDM symbol 1, and an OFDM symbol 2 in each of a subframe 0, a subframe 5, and a subframe 9 of each radio frame on a first carrier; wherein the first carrier comprises an anchor carrier in the NB-IoT or a non-anchor carrier in the NB-IoT. generating, by a network device, a first signal; and sending, on a first resource by the network device, the first signal to a terminal device, wherein the first resource comprises a first part of resource elements REs, and the first part of REs comprises all REs corresponding to an orthogonal frequency division multiplexing OFDM symbol 0, an OFDM symbol 1, and an OFDM symbol 2 in each of a subframe 0, a subframe 5, and a subframe 9 of each radio frame on a first carrier; wherein the first carrier comprises an anchor carrier in the NB-IoT or a non-anchor carrier in the NB-IoT.
A phototherapeutic system (100; 400) comprising: a housing at least partially defining an irradiation zone (106; 406), wherein the irradiation zone (106; 406) is configured to accommodate at least a portion of a human subject ; an ultraviolet (UV) radiation source (110;408) configured to direct UV radiation along a radiation path (112; 410) extending from the radiation source (110;408) to the irradiation zone (106; 406); a filter (118;412) disposed along the radiation path (112;410) downstream from the radiation source (110; 408); a spreader (120;414) disposed along the radiation path (112; 410) downstream from the filter (118;412); and a collimator (126; 416) disposed along the radiation path (112; 410) downstream from the spreader (120; 414). a housing at least partially defining an irradiation zone (106; 406), wherein the irradiation zone (106; 406) is configured to accommodate at least a portion of a human subject ; an ultraviolet (UV) radiation source (110;408) configured to direct UV radiation along a radiation path (112; 410) extending from the radiation source (110;408) to the irradiation zone (106; 406); a filter (118;412) disposed along the radiation path (112;410) downstream from the radiation source (110; 408); a spreader (120;414) disposed along the radiation path (112; 410) downstream from the filter (118;412); and a collimator (126; 416) disposed along the radiation path (112; 410) downstream from the spreader (120; 414).
A robot cleaner comprising: a main body configured to include components for performing a traveling operation or a cleaning operation of the robot cleaner ; a plurality of dust sensors provided at different positions of the main body and sensing dust in a traveling route of the main body; and a control unit configured to control traveling and cleaning operation of the main body on the basis of sensing results from the plurality of dust sensors, characterized in that the plurality of dust sensors includes a first sensor and a second sensor , wherein the control unit controls the main body to perform cleaning on a cleaning area according to a result obtained by comparing a first sensing result of the first sensor and a preset first reference before cleaning the cleaning area, and wherein the first reference is preset to be different according to any one of topography, a geographic feature and an object of the cleaning area. a main body configured to include components for performing a traveling operation or a cleaning operation of the robot cleaner ; a plurality of dust sensors provided at different positions of the main body and sensing dust in a traveling route of the main body; and a control unit configured to control traveling and cleaning operation of the main body on the basis of sensing results from the plurality of dust sensors, characterized in that the plurality of dust sensors includes a first sensor and a second sensor , wherein the control unit controls the main body to perform cleaning on a cleaning area according to a result obtained by comparing a first sensing result of the first sensor and a preset first reference before cleaning the cleaning area, and wherein the first reference is preset to be different according to any one of topography, a geographic feature and an object of the cleaning area.
Connector for two fluid lines of different geometries, having a housing , which comprises a first and a second connection section and a fluid channel which fluidically connects both connection sections , a locking element , which is couplable to the housing , and a seal , which is arrangeable between the housing and the locking element , wherein the locking element and the housing are arrangeable with respect to one another in relation to the fluid channel in such a way that a receiving section for receiving the seal is formed between the housing and the locking element , characterized in that the first connection section is configured for connection of a first fluid line with an elongate cross section, and the second connection section is configured for connection of exactly one second fluid line with another, in particular circular, cross section, wherein provision is made of a fixing element and, at the locking element , a fixing section , which are configured for fixing of the first fluid line , wherein the fixing element is introducible into at least one cutout of the fixing section and one cutout or lead-through of the first fluid line , and wherein the fixing element is configured for form-fitting fixing of the first fluid line to the connector . a housing , which comprises a first and a second connection section and a fluid channel which fluidically connects both connection sections , a locking element , which is couplable to the housing , and a seal , which is arrangeable between the housing and the locking element , wherein the locking element and the housing are arrangeable with respect to one another in relation to the fluid channel in such a way that a receiving section for receiving the seal is formed between the housing and the locking element , characterized in that the first connection section is configured for connection of a first fluid line with an elongate cross section, and the second connection section is configured for connection of exactly one second fluid line with another, in particular circular, cross section, wherein provision is made of a fixing element and, at the locking element , a fixing section , which are configured for fixing of the first fluid line , wherein the fixing element is introducible into at least one cutout of the fixing section and one cutout or lead-through of the first fluid line , and wherein the fixing element is configured for form-fitting fixing of the first fluid line to the connector .
Device for treatment of a medium with pulsed electric fields, having a treatment cell which has at least two electrodes which are connected by means of electrical leads to terminals of a generator for electric pulses, the treatment cell being arranged in a chamber in a housing , which can be closed by a flap , characterised in that the treatment cell is mounted on a carrier and the chamber has a wall on which at least one first guide element is arranged, which can be brought into engagement with at least one second guide element arranged on the carrier , at least one first fixing element is arranged on the wall , to which at least one second fixing element arranged on the carrier can be fastened upon engagement of the first and second guide elements , and in that at least two first contact elements are arranged on the wall , into which at least one second contact element arranged on the carrier can engage upon engagement of the first and second guide elements , and the electrodes are firmly connected to the second contact elements by means of electrical leads and the first contact elements are firmly connected to the terminals of the generator by means of electrical leads .
A breathing structure of vehicle, the breathing structure comprising: - a bracket configured to be fixedly connected to a first part of the vehicle and provided with at least one snap and at least one stopper ; - a flange configured to be fixedly connected to or integrally made with a second part of the vehicle and provided with at least one snap slot and at least one contraction part ; wherein the bracket and the flange are configured to be engaged with each other; and wherein the snap and the snap slot are configured to be engaged with each other by a snap fit, once engaged a clearance (d) is set between a snapping surface (E) of the snap and a snapping surface (F) of the snap slot , and the snapping surface (E) of the snap can abut against the snapping surface (F) of the snap slot when the second part suffers a deformation, so as to absorb and control the deformation of the second part ; and wherein the stopper and the contraction part are configured to be engaged with each other, once engaged a clearance is set between the stopper and the contraction part , and the contraction part can abut against the stopper when the second part suffers a deformation, so as to absorb and control the deformation of the second part , wherein the stopper comprises a first stopping surface (G) and a second stopping surface (H), and the contraction part is a contraction groove and comprises a first abutting surface (I) and a second abutting surface (J), wherein the first abutting surface (I) and the second abutting surface (J) abut respectively the first stopping surface (G) and the second stopping surface (H) by sequence when the second part suffers a deformation. - a bracket configured to be fixedly connected to a first part of the vehicle and provided with at least one snap and at least one stopper ; - a flange configured to be fixedly connected to or integrally made with a second part of the vehicle and provided with at least one snap slot and at least one contraction part ;