mhurhangee/patent-ind-claim-en huggingface dataset:
A system to identify cooling loop characteristics, comprising: a collection engine to collect data from sensors located in a plurality of devices associated with a plurality of liquid cooling loops ; and a correlation engine to correlate the collected data and identify, based on the correlated data, a common loop from among the plurality of liquid cooling loops , the common loop being a particular liquid cooling loop shared by associated devices ; and which of the plurality of devices are the devices associated with the common loop by looking in the collected data for similar anomalies in detectable characteristics of cooling loops. a collection engine to collect data from sensors located in a plurality of devices associated with a plurality of liquid cooling loops ; and a correlation engine to correlate the collected data and identify, based on the correlated data, a common loop from among the plurality of liquid cooling loops , the common loop being a particular liquid cooling loop shared by associated devices ; and which of the plurality of devices are the devices associated with the common loop by looking in the collected data for similar anomalies in detectable characteristics of cooling loops.
A method for producing a hydrocarbon fraction, wherein the hydrocarbon fraction is formed from synthesis gas and the synthesis gas is treated by means of catalysts, char act e r i zed in that - the hydrocarbon fraction is formed from biomass based synthesis gas wherein the biomass based synthesis gas comprises an H 2 :CO molar ratio of about 1.1, - the synthesis gas is fed through at least two catalyst layers in which the first catalyst layer and the second catalyst layer is arranged sequentially, and the synthesis gas is first fed through the first catalyst layer and then through the second catalyst layer, - the first catalyst layer includes Fe-based catalyst for producing olefinic hydrocarbons and removing sulphur, and feeding the biomass based synthesis gas through the first catalyst layer increases the H 2 :CO molar ratio to about 1.5:1-2.5:1, - the second catalyst layer includes Co-based catalyst for modifying the hydrocarbons, - the synthesis gas is treated by supplying the synthesis gas through the first and second catalyst layers in order to form a hydrocarbon composition including the hydrocarbon fraction which is a gasoline fraction, - temperatures and pressures are controlled independently in the both catalyst layers, and - a reaction pressure is between 4 to 8 bar and a temperature is between 220 to 350 °C in the first catalyst layer and a reaction pressure is between 4 to 8 bar and a temperature is between 180 to 250 °C in the second catalyst layer. - the hydrocarbon fraction is formed from biomass based synthesis gas wherein the biomass based synthesis gas comprises an H 2 :CO molar ratio of about 1.1, - the synthesis gas is fed through at least two catalyst layers in which the first catalyst layer and the second catalyst layer is arranged sequentially, and the synthesis gas is first fed through the first catalyst layer and then through the second catalyst layer, - the first catalyst layer includes Fe-based catalyst for producing olefinic hydrocarbons and removing sulphur, and feeding the biomass based synthesis gas through the first catalyst layer increases the H 2 :CO molar ratio to about 1.5:1-2.5:1, - the second catalyst layer includes Co-based catalyst for modifying the hydrocarbons, - the synthesis gas is treated by supplying the synthesis gas through the first and second catalyst layers in order to form a hydrocarbon composition including the hydrocarbon fraction which is a gasoline fraction, - temperatures and pressures are controlled independently in the both catalyst layers, and - a reaction pressure is between 4 to 8 bar and a temperature is between 220 to 350 °C in the first catalyst layer and a reaction pressure is between 4 to 8 bar and a temperature is between 180 to 250 °C in the second catalyst layer.
Luminaire comprising the following: a hollow chamber having a light exit surface and a rear side opposite the light exit surface, linearly arranged semiconductor light sources mounted on opposite sides laterally adjacent the light exit surface, and optical elements which direct a part of the light of the semiconductor light sources towards the rear side , wherein the rear side is partially translucent and partially reflective, in particular diffusely reflective, so that the light incident thereon is partially reflected in direction to the light exit surface to produce a direct illumination and partially passes through the rear side to produce an indirect illumination, the back side comprising a region between two of the optical elements that is diffusely reflective, and the rear side comprises one or more light-transmissive, in particular transparent or translucent partial regions , characterized in that the one or more light-transmissive partial regions are each arranged between one of the two optical elements and an outer edge of the luminaire, no light from the LEDs emerging directly from the luminaire without prior reflection through the light-emitting surface. a hollow chamber having a light exit surface and a rear side opposite the light exit surface, linearly arranged semiconductor light sources mounted on opposite sides laterally adjacent the light exit surface, and optical elements which direct a part of the light of the semiconductor light sources towards the rear side , wherein the rear side is partially translucent and partially reflective, in particular diffusely reflective, so that the light incident thereon is partially reflected in direction to the light exit surface to produce a direct illumination and partially passes through the rear side to produce an indirect illumination, the back side comprising a region between two of the optical elements that is diffusely reflective, and the rear side comprises one or more light-transmissive, in particular transparent or translucent partial regions , characterized in that the one or more light-transmissive partial regions are each arranged between one of the two optical elements and an outer edge of the luminaire, no light from the LEDs emerging directly from the luminaire without prior reflection through the light-emitting surface.
An electronic device, comprising: a device body having a surface with an opening ; a rotating shaft ; a functional module rotatable around the rotating shaft and configured to be able to rotate into the device body or rotate out from the device body through the opening ; a driving module configured to drive the functional module to rotate around the rotating shaft ; characterized in that , a surface of the functional module at the opening is provided with a first touch sensing component ; a second touch sensing component is provided on another surface of the functional module opposite to the first touch sensing component ; in a state where the functional module rotates into the device body , when a user touches the first touch sensing component , the driving module is configured to drive the functional module to rotate in response to the touch operation, so that the functional module rotates out from the device body ; and when the user touches the second touch sensing component , the driving module is configured to drive the functional module to rotate in response to the touch operation, so that the functional module rotates into the device body . a device body having a surface with an opening ; a rotating shaft ; a functional module rotatable around the rotating shaft and configured to be able to rotate into the device body or rotate out from the device body through the opening ; a driving module configured to drive the functional module to rotate around the rotating shaft ; characterized in that , a surface of the functional module at the opening is provided with a first touch sensing component ; a second touch sensing component is provided on another surface of the functional module opposite to the first touch sensing component ; in a state where the functional module rotates into the device body , when a user touches the first touch sensing component , the driving module is configured to drive the functional module to rotate in response to the touch operation, so that the functional module rotates out from the device body ; and when the user touches the second touch sensing component , the driving module is configured to drive the functional module to rotate in response to the touch operation, so that the functional module rotates into the device body .
Sealing system for a rotating shaft of an electrical compressor, the electrical compressor being an air compressor, driven by a variable reluctance electric motor, in order to supercharge a heat engine, the shaft being linked to at least one compartment , the shaft comprising two seals disposed in a recess of the shaft and a device for holding the seals against at least one wall of the recess , to maintain the seal-tightness of the compartment, characterized in that the holding device is formed by a spring disposed in the recess, along the longitudinal axis (X) of the shaft , so as to be deformed along the longitudinal axis (X) of the shaft , the ends of the spring being ground so as to have a slanted shape, allowing them to rest flat on the seals or being configured to cooperate with a shape formed in the seals, to prevent a relative movement of the two seals about the axis (X) of the shaft , the ends of the spring are configured for the efforts supplied by the spring to be adjusted so as to prevent the backward movement of the seals under the effect of the pressure differences.
A processor-implemented image processing method comprising: 1.1 receiving (S1305) images acquired from a plurality of vehicles positioned on a road; 1.2 storing (S1310) the received images according to acquisition information of the received images ; 1.3 determining (S1315) a reference image and a target image based on images having the same acquisition information among the stored images; 1.4 performing (S1425) an image registration using a plurality of feature points extracted from each of the determined reference image and target image ; 1.5 performing (S 1430) a transparency process for each of the reference image and the target image which are image-registered; 1.6 extracting (S1330) static objects from the transparency-processed image by synthesizing the transparency-processed reference image and the transparency-processed target image; and 1.7 comparing (S1335) the extracted static objects with objects on map data which is previously stored and updating (S1345) the map data when the objects on the map data which is previously stored and the extracted static objects are different from each other. 1.1 receiving (S1305) images acquired from a plurality of vehicles positioned on a road; 1.2 storing (S1310) the received images according to acquisition information of the received images ; 1.3 determining (S1315) a reference image and a target image based on images having the same acquisition information among the stored images; 1.4 performing (S1425) an image registration using a plurality of feature points extracted from each of the determined reference image and target image ; 1.5 performing (S 1430) a transparency process for each of the reference image and the target image which are image-registered; 1.6 extracting (S1330) static objects from the transparency-processed image by synthesizing the transparency-processed reference image and the transparency-processed target image; and 1.7 comparing (S1335) the extracted static objects with objects on map data which is previously stored and updating (S1345) the map data when the objects on the map data which is previously stored and the extracted static objects are different from each other.
A liquid ejection device, comprising: a nozzle plate in which a plurality of nozzles for ejecting liquid are arranged, wherein each of the nozzles is provided with an actuator such that one set of the nozzle and the actuator configures one channel; a liquid supply unit configured to communicate with the nozzles ; a waveform generation circuit configured to generate plural kinds of drive waveforms with different generation start timings, the generation start timings being shifted by a delay amount; a waveform allocation circuit configured to set a drive waveform among the plural kinds of drive waveforms and an actuator of a nozzle to be allocated; and a drive signal output circuit configured to drive the actuators with the respective allocated drive waveforms, characterized in that the waveform allocation circuit includes a drive waveform selection memory that stores an allocation pattern of the drive waveform which sets the channel and a delay amount among a plurality of values of delay amount to be allocated in a predetermined array; and the waveform allocation circuit is further configured to set the allocation pattern of the drive waveform for the channel with the predetermined array. a nozzle plate in which a plurality of nozzles for ejecting liquid are arranged, wherein each of the nozzles is provided with an actuator such that one set of the nozzle and the actuator configures one channel; a liquid supply unit configured to communicate with the nozzles ; a waveform generation circuit configured to generate plural kinds of drive waveforms with different generation start timings, the generation start timings being shifted by a delay amount; a waveform allocation circuit configured to set a drive waveform among the plural kinds of drive waveforms and an actuator of a nozzle to be allocated; and a drive signal output circuit configured to drive the actuators with the respective allocated drive waveforms, characterized in that the waveform allocation circuit includes a drive waveform selection memory that stores an allocation pattern of the drive waveform which sets the channel and a delay amount among a plurality of values of delay amount to be allocated in a predetermined array; and the waveform allocation circuit is further configured to set the allocation pattern of the drive waveform for the channel with the predetermined array.
Tapping apparatus for transmitting electrical energy from a spatially fixed, busbar to a tapping device which can be moved along the busbar or is also spatially fixed, comprising: - at least one connection housing , the busbar being mechanically connected to the tapping device by means of the connection housing , - a current tapping apparatus which comprises sliding contact elements for collecting electrical energy from the busbar , the current tapping apparatus being mechanically rigidly connected to the connection housing , - characterized in that the connection housing comprises at least one base support , on which an upper control circuit boards and a lower control circuit boards are mounted, the base support being mounted between the two control circuit boards , and thus the two control circuit boards are mounted one above the other, so stacked arranged, in a direction perpendicular to a direction of travel . - at least one connection housing , the busbar being mechanically connected to the tapping device by means of the connection housing , - a current tapping apparatus which comprises sliding contact elements for collecting electrical energy from the busbar , the current tapping apparatus being mechanically rigidly connected to the connection housing , - characterized in that
A near-eye display device comprising: a precompensation renderer configured to precompensate an image with a wide field of view, FOV, into a compressed image having a compressed FOV for coupling to a waveguide; a light engine configured to produce light waves corresponding to the compressed FOV-image, an optical assembly configured to introduce distortion to the image having the compressed FOV for propagation via the waveguide by way of an in-coupler and an out-coupler; the in-coupler having a first surface grating that is configured to provide a first momentum change for angles of incidence associated with the image from the optical assembly; and the out-coupler having a second surface grating that is configured to provide a second momentum change for angles of incidence associated with the image from the in-coupler; wherein at least one of the first momentum change and the second momentum change is a non-linear momentum change that modifies the image to create a modified image, wherein propagation of the image through the in-coupler and out-coupler results in the modified image being corrected for distortion, and also having an expanded FOV larger than the compressed FOV. a precompensation renderer configured to precompensate an image with a wide field of view, FOV, into a compressed image having a compressed FOV for coupling to a waveguide; a light engine configured to produce light waves corresponding to the compressed FOV-image, an optical assembly configured to introduce distortion to the image having the compressed FOV for propagation via the waveguide by way of an in-coupler and an out-coupler; the in-coupler having a first surface grating that is configured to provide a first momentum change for angles of incidence associated with the image from the optical assembly; and the out-coupler having a second surface grating that is configured to provide a second momentum change for angles of incidence associated with the image from the in-coupler; wherein at least one of the first momentum change and the second momentum change is a non-linear momentum change that modifies the image to create a modified image, wherein propagation of the image through the in-coupler and out-coupler results in the modified image being corrected for distortion, and also having an expanded FOV larger than the compressed FOV.
An electronic device , configured to: detect an object reflecting transmitted waves based on transmitted signals transmitted from a transmitting antenna as the transmitted waves and received signals received from a receiving antenna as reflected waves obtained by reflection of the transmitted waves; determine that the object has been detected when a peak in a result obtained by performing a Fourier transform process on beat signals generated based on the transmitted signals and the received signals is equal to or higher than a predetermined threshold value; determine whether a cluster etection of the object has been successful based on a result obtained by performing a clustering process and a tracking process based on the result obtained by performing the clustering process, on the result obtained by performing the Fourier transform process on the beat signal; update an object detection probability at a threshold value candidate based on whether the cluster detection of the object has been successful; and select a predetermined threshold value based on the object detection probability. detect an object reflecting transmitted waves based on transmitted signals transmitted from a transmitting antenna as the transmitted waves and received signals received from a receiving antenna as reflected waves obtained by reflection of the transmitted waves; determine that the object has been detected when a peak in a result obtained by performing a Fourier transform process on beat signals generated based on the transmitted signals and the received signals is equal to or higher than a predetermined threshold value; determine whether a cluster etection of the object has been successful based on a result obtained by performing a clustering process and a tracking process based on the result obtained by performing the clustering process, on the result obtained by performing the Fourier transform process on the beat signal; update an object detection probability at a threshold value candidate based on whether the cluster detection of the object has been successful; and select a predetermined threshold value based on the object detection probability.
Compositions containing a) 15 to 90% by weight of nylon-6,6, b) 3 to 30% by weight of at least one thermoplastic polyamide from the group comprising nylon-4,6 and/or semiaromatic copolyamides containing terephthalic acid as monomer unit and having a melting point in the range from 270°C to 330°C, wherein the proportion of said constituent(s) b) based on the sum of all thermoplastic polymers contained in the composition is 5 to 40% by weight, c) 5 to 70% by weight of glass fibres, and d) 0.01 to 3% by weight of at least one heat stabilizer, wherein the sum of all percentages by weight always adds up to 100 and that, in addition to constituents a), b), c), and d), these also contain e) 0.01 to 5% by weight of dipentaerythritol and/or tripentaerythritol, wherein the remaining constituents are reduced such that the sum of all percentages by weight always adds up to 100. a) 15 to 90% by weight of nylon-6,6, b) 3 to 30% by weight of at least one thermoplastic polyamide from the group comprising nylon-4,6 and/or semiaromatic copolyamides containing terephthalic acid as monomer unit and having a melting point in the range from 270°C to 330°C, wherein the proportion of said constituent(s) b) based on the sum of all thermoplastic polymers contained in the composition is 5 to 40% by weight, c) 5 to 70% by weight of glass fibres, and d) 0.01 to 3% by weight of at least one heat stabilizer,
A broad band directional antenna comprising: - a conductive ground plane having a main axis extending perpendicularly to the conductive ground plane; - at least one active radiator which is axially spaced from the conductive ground plane in one direction (A), - a metamaterial ground plane assembly comprising: o a metamaterial ground plane having a periphery ; o a first conductive wall immediately adjacent the periphery of the metamaterial ground plane, the first conductive wall having a bottom and a top ; and o a second wall comprising at least two mutually electrically insulated conductive wall parts (26.1, 26.2) located spaced from and outside of the first conductive wall , - the metamaterial ground plane assembly being arranged such that the bottom of the first conductive wall is located between the conductive ground plane and the metamaterial ground plane and the top of the first conductive wall is located beyond the at least one active radiator in the one direction (A); and - at least one conductive pillar (28.1) between the first conductive wall and the conductive ground plane . - a conductive ground plane having a main axis extending perpendicularly to the conductive ground plane; - at least one active radiator which is axially spaced from the conductive ground plane in one direction (A), - a metamaterial ground plane assembly comprising: o a metamaterial ground plane having a periphery ; o a first conductive wall immediately adjacent the periphery of the metamaterial ground plane, the first conductive wall having a bottom and a top ; and o a second wall comprising at least two mutually electrically insulated conductive wall parts (26.1, 26.2) located spaced from and outside of the first conductive wall , o a metamaterial ground plane having a periphery ; o a first conductive wall immediately adjacent the periphery of the metamaterial ground plane, the first conductive wall having a bottom and a top ; and o a second wall comprising at least two mutually electrically insulated conductive wall parts (26.1, 26.2) located spaced from and outside of the first conductive wall , - the metamaterial ground plane assembly being arranged such that the bottom of the first conductive wall is located between the conductive ground plane and the metamaterial ground plane and the top of the first conductive wall is located beyond the at least one active radiator in the one direction (A); and - at least one conductive pillar (28.1) between the first conductive wall and the conductive ground plane .
A yeast strain deposited on May 19, 2016, at the Collection Nationale de Cultures de Microorganismes (CNCM) pursuant to the Budapest treaty under No. 1-5088.