mhurhangee/patent-ind-claim-en huggingface dataset:
A device for up-conversion of Short Wavelength Infra-Red (SWIR) images into visible images, the device comprising a sub micrometer thickness structure that is composed of several sub-layers, each having a typical thickness of tens to hundreds of nanometers; wherein the device is composed of two main sections, an organic light emitted diode (OLED) section on top of a photodetector section, and wherein the sub-layers comprise: A. a transparent anode layer ; and B. the photodetector section comprising: i. a SWIR absorption layer comprising nano-rods or nano-columns; ii. a surface plasmon enhanced layer comprising metal nano-particles ; iii. a structured pixilated metal layer ; and C. the organic light emitted diode (OLED) section comprising: i. a holes transport layer ; ii. an OLED layer ; iii. an electron transport layer ; and D. a transparent cathode layer ; wherein the generated visible image is emitted from the OLED section through the top transparent cathode, which is deposited on the OLED section, and wherein, the nano-rods or nano-columns are grown perpendicular to a substrate applied on top of the transparent anode layer . A. a transparent anode layer ; and B. the photodetector section comprising: i. a SWIR absorption layer comprising nano-rods or nano-columns; ii. a surface plasmon enhanced layer comprising metal nano-particles ; iii. a structured pixilated metal layer ; and i. a SWIR absorption layer comprising nano-rods or nano-columns; ii. a surface plasmon enhanced layer comprising metal nano-particles ; iii. a structured pixilated metal layer ; and C. the organic light emitted diode (OLED) section comprising: i. a holes transport layer ; ii. an OLED layer ; iii. an electron transport layer ; and i. a holes transport layer ; ii. an OLED layer ; iii. an electron transport layer ; and D. a transparent cathode layer ;
A method for a wireless device to perform measurements in a mobile communication network , the method comprising: receiving configuration information for periodic downlink pilot measurements to be performed by the wireless device, the configuration information including an upper limit on a number of neighbor cells for which periodic downlink pilot measurements are permitted to be reported, wherein the limit is a first upper limit on a first number of neighbor cells, among all absolute priority layers having higher priority than an absolute priority layer of a serving cell of the wireless device, for which periodic downlink pilot measurements are permitted to be reported, and wherein the configuration information further includes: a second upper limit on a second number of neighbor cells, among all absolute priority layers having lower priority than the absolute priority layer of the serving cell of the wireless device, for which periodic downlink pilot measurements are permitted to be reported; and a third upper limit on a third number of neighbor cells, among all absolute priority layers having priority equal to the absolute priority layer of the serving cell of the wireless device, for which periodic downlink pilot measurements are permitted to be reported; and the method further comprising: performing the periodic downlink pilot measurements in accordance with the configuration information. a second upper limit on a second number of neighbor cells, among all absolute priority layers having lower priority than the absolute priority layer of the serving cell of the wireless device, for which periodic downlink pilot measurements are permitted to be reported; and a third upper limit on a third number of neighbor cells, among all absolute priority layers having priority equal to the absolute priority layer of the serving cell of the wireless device, for which periodic downlink pilot measurements are permitted to be reported; and the method further comprising: performing the periodic downlink pilot measurements in accordance with the configuration information.
A test apparatus comprising: a detector configured to irradiate light to each of plurality of chambers of a reaction device containing a sample while moving by a predetermined distance in a predetermined direction from a reference position, detect light transmitted through each of the plurality of chambers and acquires detection data regarding each of the plurality of chambers ; at least one positional sensor configured to sense the reference position of the detector ; a motor configured to move the detector such that light is irradiated to the plurality of chambers; characterized by ! I a controller configured to compare the detection data received from the detector , when the detector is moved by the predetermined distance, regarding any one of the plurality of chambers of the reaction device with predetermined reference data corresponding to the detection data, determine an extent by which the detection data of the detector is shifted from the reference data, and determine a positional error of the detector based on the extent of shift, and correct the positional error of the detector, wherein the predetermined reference data includes data that detects light transmitted through each of the plurality of chambers while the detector moves by a predetermined distance when the motor operates normally. a detector configured to irradiate light to each of plurality of chambers of a reaction device containing a sample while moving by a predetermined distance in a predetermined direction from a reference position, detect light transmitted through each of the plurality of chambers and acquires detection data regarding each of the plurality of chambers ; at least one positional sensor configured to sense the reference position of the detector ; a motor configured to move the detector such that light is irradiated to the plurality of chambers; characterized by ! I a controller configured to compare the detection data received from the detector , when the detector is moved by the predetermined distance, regarding any one of the plurality of chambers of the reaction device with predetermined reference data corresponding to the detection data, determine an extent by which the detection data of the detector is shifted from the reference data, and determine a positional error of the detector based on the extent of shift, and correct the positional error of the detector, wherein the predetermined reference data includes data that detects light transmitted through each of the plurality of chambers while the detector moves by a predetermined distance when the motor operates normally.
A blood component sampling cassette which comprises a cassette main body having a plurality of flow paths, and which is detachably attached to a blood component separating device , wherein the plurality of flow paths includes an introduction line being configured to introduce blood of a blood donor, a blood component transfer line being configured to transfer to a sampling container a blood component obtained by separating the blood, and a retransfusion line being configured to transfer to the blood donor at least part of the blood component obtained by the separation, the cassette main body includes a first sheet and a second sheet which are formed by using a soft material to which autoclave sterilization is applicable, characterized in that the first sheet and the second sheet are overlaid in a thickness direction and bonded to each other, and the plurality of flow paths is formed between the first sheet and the second sheet , wherein the cassette main body is connected to a plurality of tubes which communicates to the plurality of flow paths respectively, pump function portions , on which pumps mounted on the blood component separating device work, are located at a tube part which is an inflow side of the plurality of tubes connected to an inflow side of the plurality of flow paths or an area which is an inflow side of the plurality of flow paths of the cassette main body , and a portion closer to a downstream side than the pump function portions is configured to have a positive pressure applied to by driving the pumps . a cassette main body having a plurality of flow paths, and which is detachably attached to a blood component separating device , wherein the plurality of flow paths includes an introduction line being configured to introduce blood of a blood donor, a blood component transfer line being configured to transfer to a sampling container a blood component obtained by separating the blood, and a retransfusion line being configured to transfer to the blood donor at least part of the blood component obtained by the separation, the cassette main body includes a first sheet and a second sheet which are formed by using a soft material to which autoclave sterilization is applicable, characterized in that the first sheet and the second sheet are overlaid in a thickness direction and bonded to each other, and the plurality of flow paths is formed between the first sheet and the second sheet , wherein the cassette main body is connected to a plurality of tubes which communicates to the plurality of flow paths respectively, pump function portions , on which pumps mounted on the blood component separating device work, are located at a tube part which is an inflow side of the plurality of tubes connected to an inflow side of the plurality of flow paths or an area which is an inflow side of the plurality of flow paths of the cassette main body , and a portion closer to a downstream side than the pump function portions is configured to have a positive pressure applied to by driving the pumps .
Device for attaching a bracelet to a watch case , the device comprising, on the one hand, a bar secured to the watch case by means of at least one horn , and on the other hand, an insert integral with the end of a bracelet, wherein the bar and the insert are complementary in order to cooperate by fitting one inside the other to form removable assembly means able to make the bracelet interchangeable, the bar being formed by a cylindrical hollow body provided with two retractable pivots each comprising a post arranged so as to slide in a longitudinal groove formed in the body of the bar, said pivots being separated by a spring , and having at least one housing , said housing being arranged to cooperate by interlocking with said at least one insert , said bar comprising means for holding the at least one insert, the bar being arranged so as to pivot from a first position A, in which the insert is capable of being positioned on the bar , into a second position B in which said insert is locked onto the bar by means of locking means cooperating with said holding means, the bar being pivoted from position A to position B by means of the bracelet strand by a rotation of at least 45° about the A-A axis relative to position A, the locking means comprising at least one additional groove extending from one of the ends of the longitudinal groove in a substantially perpendicular direction relative to the longitudinal groove , the at least one additional groove being arranged so as to cooperate with at least one post when the bar pivots from position A to position B.
An industrial truck with a driver protection roof , which has a crown and at least two struts fastened to a vehicle frame, which struts, arranged on opposite sides of the vehicle, support the crown , characterized in that two or more of the at least two struts each have at least one nominal articulation , in which the respective strut is inclined inward.
Turbocharger for an internal combustion engine, comprising at least three connections for respective lines , wherein the at least three connections are arranged on the same side of the turbocharger , and wherein the turbocharger is designed such that the lines are installable, and held in the installed state, on the at least three connections by means of a common bolt , characterized in that at least a first of the connections has a projection under which a first flange of a first of the lines engages in the manner of a bayonet fastening in the installed state.
An inerting system comprising: a fuel source configured to transfer fuel into a fuel supply line ; a combustion air source configured to supply combustion air to mix with the fuel; a catalytic oxidation unit configured to receive the fuel from the fuel source and the combustion air from the combustion air source, to convert the fuel and the combustion air to inert air, and to deliver the inert air to an inert air supply line; an oxygen sensor connected to the inert air supply line downstream of the catalytic oxidation unit, the oxygen sensor configured to produce a sensor signal representing a concentration of oxygen in the inert air; a controller configured to control flow of the combustion air and the fuel into the catalytic oxidation unit as a function of the sensor signal from the oxygen sensor representing the concentration of oxygen in the inert air in the inert air supply line; characterized by : a dilution air source connected to the inert air supply line downstream of the catalytic oxidation unit, wherein the controller is configured to insert dilution air from the dilution air source into the inert air as a function of the sensor signal from the oxygen sensor; and a location requiring inert air downstream of the oxygen sensor, the location configured to receive the inert air. a fuel source configured to transfer fuel into a fuel supply line ; a combustion air source configured to supply combustion air to mix with the fuel; a catalytic oxidation unit configured to receive the fuel from the fuel source and the combustion air from the combustion air source, to convert the fuel and the combustion air to inert air, and to deliver the inert air to an inert air supply line; an oxygen sensor connected to the inert air supply line downstream of the catalytic oxidation unit, the oxygen sensor configured to produce a sensor signal representing a concentration of oxygen in the inert air; a controller configured to control flow of the combustion air and the fuel into the catalytic oxidation unit as a function of the sensor signal from the oxygen sensor representing the concentration of oxygen in the inert air in the inert air supply line; characterized by : a dilution air source connected to the inert air supply line downstream of the catalytic oxidation unit, wherein the controller is configured to insert dilution air from the dilution air source into the inert air as a function of the sensor signal from the oxygen sensor; and a location requiring inert air downstream of the oxygen sensor, the location configured to receive the inert air.
An apparatus for ejecting droplets of a fluid, comprising: a substrate having a fluid pumping chamber formed therein; a descender formed in the substrate and fluidically connected to the fluid pumping chamber; a nozzle formed in the substrate and fluidically connected to the descender; an actuator in pressure communication with the fluid pumping chamber and capable of generating a firing pulse for causing ejection of a fluid droplet from the nozzle, the firing pulse having a firing pulse frequency; and a recirculation passage formed in the substrate; characterized in that the recirculation passage is configured to have an impedance at the firing pulse frequency substantially higher, preferably at least two times, more preferably at least ten times higher than the impedance of the nozzle. a substrate having a fluid pumping chamber formed therein; a descender formed in the substrate and fluidically connected to the fluid pumping chamber; a nozzle formed in the substrate and fluidically connected to the descender; an actuator in pressure communication with the fluid pumping chamber and capable of generating a firing pulse for causing ejection of a fluid droplet from the nozzle, the firing pulse having a firing pulse frequency; and a recirculation passage formed in the substrate;
A vacuum cleaner comprising: a cleaner body ; a moving wheel provided at each of both side surfaces of the cleaner body , rotated for travelling of the vacuum cleaner, and configured to support the cleaner body to be rotatable in normal and reverse directions; a wheel motor assembly connected to the moving wheel and configured to rotate the moving wheel for the travelling of the vacuum cleaner, characterised in that the vacuum cleaner further comprises: a main motor provided inside the cleaner body , located at a rearer side than a vertical extension line passing a rotating center of the moving wheel , and driven to suction dust; and a battery provided inside the cleaner body , located at the rearer side than the vertical extension line , and configured to provide electric power to the main motor and the wheel motor assembly , wherein a center of gravity of the cleaner body is located at a rearer position than the vertical extension line due to the arrangement of the main motor and the battery . a cleaner body ; a moving wheel provided at each of both side surfaces of the cleaner body , rotated for travelling of the vacuum cleaner, and configured to support the cleaner body to be rotatable in normal and reverse directions; a wheel motor assembly connected to the moving wheel and configured to rotate the moving wheel for the travelling of the vacuum cleaner, characterised in that the vacuum cleaner further comprises: a main motor provided inside the cleaner body , located at a rearer side than a vertical extension line passing a rotating center of the moving wheel , and driven to suction dust; and a battery provided inside the cleaner body , located at the rearer side than the vertical extension line , and configured to provide electric power to the main motor and the wheel motor assembly , wherein a center of gravity of the cleaner body is located at a rearer position than the vertical extension line due to the arrangement of the main motor and the battery .
An electromagnetic-wave absorber comprising: - a body of porous material comprising a first surface for receiving electromagnetic waves , and starting from the first surface , a first layer for scattering the electromagnetic waves ; - positioned after the first layer , a second layer substantially transparent to the electromagnetic waves ; wherein the porous material is open-porous material; wherein: - positioned after the second layer , a reflective surface for reflecting the electromagnetic waves, wherein the reflective surface is a metallic film; and - pores in the first layer comprising a coating of electrically conductive material, the coating only partially covering the pores so that a region with coating is formed on the side of the pores facing the first surface and a region free of coating is formed on the side of the pores facing away from the first surface . - a body of porous material comprising a first surface for receiving electromagnetic waves , and starting from the first surface , a first layer for scattering the electromagnetic waves ; - positioned after the first layer , a second layer substantially transparent to the electromagnetic waves ; - positioned after the second layer , a reflective surface for reflecting the electromagnetic waves, wherein the reflective surface is a metallic film; and - pores in the first layer comprising a coating of electrically conductive material, the coating only partially covering the pores so that a region with coating is formed on the side of the pores facing the first surface and a region free of coating is formed on the side of the pores facing away from the first surface .
System for customizing a vehicle function, comprising - a developer platform with an application programming interface, API, to create content for at least one predefined vehicle function, wherein the developer platform is configured to transmit the created content to a content server ; - the content server configured to receive and store the created content; - a mobile device comprising an application, wherein the application is configured to access the content server and provide the stored content of the content server for selection; and - a vehicle configured to receive selected content and customize the vehicle function with the received content; - wherein the developer platform comprises a validation program configured to determine, if the created content violates an operation criterion of the vehicle , wherein a developer is warned and/or a transmission of the created content to the content server is denied, if the created content violates the operation criterion, wherein the operation criterion comprises, if the content is against the law, if it violates safety regulations and/or if it violates company rules. - a developer platform with an application programming interface, API, to create content for at least one predefined vehicle function, wherein the developer platform is configured to transmit the created content to a content server ; - the content server configured to receive and store the created content; - a mobile device comprising an application, wherein the application is configured to access the content server and provide the stored content of the content server for selection; and - a vehicle configured to receive selected content and customize the vehicle function with the received content; - wherein the developer platform comprises a validation program configured to determine, if the created content violates an operation criterion of the vehicle , wherein a developer is warned and/or a transmission of the created content to the content server is denied, if the created content violates the operation criterion, wherein the operation criterion comprises, if the content is against the law, if it violates safety regulations and/or if it violates company rules.
A resource energy determining method for use in a vehicle-to-vehicle, V2V, communications system, wherein the method comprises: obtaining , by first user equipment, UE, time-frequency resource indication information and resource cycle reservation information of second UE in a sensing time window of the first UE; determining , by the first UE, energy of a first resource based on the time-frequency resource indication information of the second UE, the first resource is a frequency domain resource that the first UE cannot decode in a subframe in the sensing time window of the first UE; and determining , by the first UE, energy of each of at least one second resource based on the energy of the first resource and the resource cycle reservation information of the second UE, wherein the at least one second resource is after the sensing time window of the first UE, the energy of each of the at least one second resource is equal to the energy of the first resource; and a frequency domain location of the first resource in a transmission period in which the first resource is located is the same as a frequency domain location of each of the at least one second resource in a transmission period in which the second resource is located. obtaining , by first user equipment, UE, time-frequency resource indication information and resource cycle reservation information of second UE in a sensing time window of the first UE; determining , by the first UE, energy of a first resource based on the time-frequency resource indication information of the second UE, the first resource is a frequency domain resource that the first UE cannot decode in a subframe in the sensing time window of the first UE; and determining , by the first UE, energy of each of at least one second resource based on the energy of the first resource and the resource cycle reservation information of the second UE, wherein the at least one second resource is after the sensing time window of the first UE, the energy of each of the at least one second resource is equal to the energy of the first resource; and a frequency domain location of the first resource in a transmission period in which the first resource is located is the same as a frequency domain location of each of the at least one second resource in a transmission period in which the second resource is located.