mhurhangee/patent-ind-claim-en huggingface dataset:
A process for hydrotreating a hydrocarbon resid stream comprising: adding a water stream and a first stage hydrogen stream to a resid stream; hydrotreating said resid stream over a demetallation catalyst to demetallize said resid stream in the presence of the first stage hydrogen stream to provide a demetallized resid stream reduced in metals and sulfur concentration; separating said demetallized resid stream into a first stage vapor stream comprising hydrogen sulfide and a first stage liquid stream with a smaller concentration of hydrogen sulfide than in the demetallized resid stream; adding a second stage hydrogen stream to said first stage liquid stream; hydrotreating said first stage liquid stream over a desulfurization catalyst and the second stage hydrogen stream to provide a desulfurized resid stream; and separating said desulfurized resid stream to provide a second stage vapor stream and a second stage liquid stream and taking said first stage hydrogen stream from said second stage vapor stream. adding a water stream and a first stage hydrogen stream to a resid stream; hydrotreating said resid stream over a demetallation catalyst to demetallize said resid stream in the presence of the first stage hydrogen stream to provide a demetallized resid stream reduced in metals and sulfur concentration; separating said demetallized resid stream into a first stage vapor stream comprising hydrogen sulfide and a first stage liquid stream with a smaller concentration of hydrogen sulfide than in the demetallized resid stream; adding a second stage hydrogen stream to said first stage liquid stream; hydrotreating said first stage liquid stream over a desulfurization catalyst and the second stage hydrogen stream to provide a desulfurized resid stream; and separating said desulfurized resid stream to provide a second stage vapor stream and a second stage liquid stream and taking said first stage hydrogen stream from said second stage vapor stream.
Fastening system for a shading installation for shading a building opening, said fastening system having - at least one control profile which extends in a longitudinal direction (L) and which, in the fitted state, is displaceable in a vertical direction (V) along tensioning strings and which has a first magnet element , - a slide which is able to be pushed into the control profile at an end face and via which the tensioning strings are led out of the control profile at an end face, - a holder for being fitted to a frame element of the building opening and having a second magnet element , - wherein the slide has a receptacle at least for a portion of the holder and the two magnet elements are positioned in such a way that, in the fitted state and when the control profile is on the frame element in an end position, the two magnet elements are situated opposite one another such that the control profile is held magnetically in the end position, characterized in that the first magnet element is fastened to the control profile independently of the slide . - at least one control profile which extends in a longitudinal direction (L) and which, in the fitted state, is displaceable in a vertical direction (V) along tensioning strings and which has a first magnet element , - a slide which is able to be pushed into the control profile at an end face and via which the tensioning strings are led out of the control profile at an end face, - a holder for being fitted to a frame element of the building opening and having a second magnet element , - wherein the slide has a receptacle at least for a portion of the holder and the two magnet elements are positioned in such a way that, in the fitted state and when the control profile is on the frame element in an end position, the two magnet elements are situated opposite one another such that the control profile is held magnetically in the end position,
Rotary grate for a biomass heating system , possessing at least one rotary grate element ; at least one bearing axis , by means of which the rotary grate element is rotatably mounted; characterised in that at least one cleaning device is attached to one of the rotary grate elements , wherein the cleaning device possesses a mass element that is movable relative to the rotary grate element ; wherein the cleaning device is configured in such a way that when the rotary grate element rotates it initiates an acceleration movement of the mass element , such that the cleaning device exerts a knocking effect on the rotary grate element in order to clean the rotary grate element .
An image processing apparatus comprising: a polarization imaging section configured to obtain polarized pixels in a plurality of polarization directions including a pixel value of a target polarized pixel; a defect detecting section configured to detect whether the target polarized pixel is a defective pixel using the pixel value of the target polarized pixel generated by the polarization imaging section and a pixel value of the target polarized pixel estimated from polarization characteristics corresponding to pixel values of peripheral pixels, around the target polarized pixel, in a polarization direction different from a polarization direction of the target polarized pixel, wherein in a case where a difference between the pixel value of the target polarized pixel and the pixel value estimated is out of a predetermined allowable range, the defect detecting section determines that the target polarized pixel is the defective pixel. a polarization imaging section configured to obtain polarized pixels in a plurality of polarization directions including a pixel value of a target polarized pixel; a defect detecting section configured to detect whether the target polarized pixel is a defective pixel using the pixel value of the target polarized pixel generated by the polarization imaging section and a pixel value of the target polarized pixel estimated from polarization characteristics corresponding to pixel values of peripheral pixels, around the target polarized pixel, in a polarization direction different from a polarization direction of the target polarized pixel, wherein in a case where a difference between the pixel value of the target polarized pixel and the pixel value estimated is out of a predetermined allowable range, the defect detecting section determines that the target polarized pixel is the defective pixel.
A method of wireless communication for a user equipment, UE, comprising: transmitting information indicating to a serving base station of the UE that the UE is configured to communicate with one or more relay UEs ; transmitting, to the serving base station, one or more measurements of a radio link between the UE and the serving base station ; receiving, in response to the transmitted one or more measurements, from the serving base station, configuration information comprising one or more measurements threshold values to perform a discovery procedure for identifying the one or more relay UEs ; and performing the discovery procedure ; when the one or more measurements are below the one or more measurement threshold values. transmitting information indicating to a serving base station of the UE that the UE is configured to communicate with one or more relay UEs ; transmitting, to the serving base station, one or more measurements of a radio link between the UE and the serving base station ; receiving, in response to the transmitted one or more measurements, from the serving base station, configuration information comprising one or more measurements threshold values to perform a discovery procedure for identifying the one or more relay UEs ; and performing the discovery procedure ; when the one or more measurements are below the one or more measurement threshold values.
A heat exchanger assembly comprising: a first fluid circuit for a first working fluid, said first fluid circuit including two manifolds and a plurality of flow ducts connecting said manifolds ; a second fluid circuit for a second working fluid, said second fluid circuit including a plurality of shaped plates ; wherein said flow ducts and said shaped plates are arranged alternatively one above the other so that one flow duct is arranged between two successive shaped plates ; said shaped plates comprise a circumferential wall, said shaped plates include two opposite cavities to receive said flow ducts ; and each two successive shaped plates and said one flow duct arranged therebetween define together a channel for said second working fluid, said channels defined by said shaped plates and said flow ducts being in fluid communication with each other; and characterized in that the circumferential wall of the shaped plates is inclined towards the outside of the shaped plates. a first fluid circuit for a first working fluid, said first fluid circuit including two manifolds and a plurality of flow ducts connecting said manifolds ; a second fluid circuit for a second working fluid, said second fluid circuit including a plurality of shaped plates ; wherein said flow ducts and said shaped plates are arranged alternatively one above the other so that one flow duct is arranged between two successive shaped plates ; said shaped plates comprise a circumferential wall, said shaped plates include two opposite cavities to receive said flow ducts ; and each two successive shaped plates and said one flow duct arranged therebetween define together a channel for said second working fluid, said channels defined by said shaped plates and said flow ducts being in fluid communication with each other; and characterized in that the circumferential wall of the shaped plates is inclined towards the outside of the shaped plates.
A device, comprising: a near-eye display configured to provide an image to a subject; an eye imaging system configured to collect an image of the subject; and a light field display configured to provide an autostereoscopic image of a three-dimensional model of the subject to an onlooker, wherein the autostereoscopic image includes a perspective-corrected view of the subject from multiple viewpoints within a field of view of the light field display. a near-eye display configured to provide an image to a subject; an eye imaging system configured to collect an image of the subject; and a light field display configured to provide an autostereoscopic image of a three-dimensional model of the subject to an onlooker, wherein the autostereoscopic image includes a perspective-corrected view of the subject from multiple viewpoints within a field of view of the light field display.
Lactobacillus paracasei 8700:2, DSM 13434, for use in increasing the absorption of Ca 2+ ions in the treatment or prevention of osteoporosis, and/or in increasing the absorption of Ca 2+ ions in the treatment or prevention of bone loss, in a mammal.
A method for supporting activation/deactivation of serving cells by a base station in a wireless communication system, the method comprising: configuring M supportable serving cells in a user equipment, UE, ; configuring an indicator indicating activation/deactivation of each of the M supportable serving cells ; configuring a medium access control, MAC, message which includes a MAC control element, CE, and a logical channel identifier, LCID, the MAC CE including the indicator configured for each of the M supportable serving cells and having a length corresponding to an integer multiple of 8 bits; and transmitting the configured MAC message to the UE , wherein the LCID indicates that the MAC CE includes the indicator, the MAC CE comprises a plurality of bits which correspond to indices of serving cells supportable by the system in a one-to-one manner, and the indicator is configured using each of M bits of the plurality of bits, the M bits corresponding to indices of the M supportable serving cells configured in the user equipment. configuring M supportable serving cells in a user equipment, UE, ; configuring an indicator indicating activation/deactivation of each of the M supportable serving cells ; configuring a medium access control, MAC, message which includes a MAC control element, CE, and a logical channel identifier, LCID, the MAC CE including the indicator configured for each of the M supportable serving cells and having a length corresponding to an integer multiple of 8 bits; and transmitting the configured MAC message to the UE , wherein the LCID indicates that the MAC CE includes the indicator, the MAC CE comprises a plurality of bits which correspond to indices of serving cells supportable by the system in a one-to-one manner, and the indicator is configured using each of M bits of the plurality of bits, the M bits corresponding to indices of the M supportable serving cells configured in the user equipment.
A vehicle operating state particle detection system , the system comprising: at least two particle detectors configured to collect a sample volume, the sample volume used by each particle detector of the at least two particle detectors collected in a different location relative to the vehicle than another sample volume used by another particle detector of the at least two particle detectors , wherein at least one sample volume is collected in an environment where particles being detected by an associated particle detector are disturbed by the vehicle when the vehicle is in motion; a controller in communication with the at least two particle detectors , the controller configured to determine at least one operating state of the vehicle based at least in part on a comparison of output signals of the at least two particle detectors wherein, the controller is configured to use particle velocity and at least one of measurement of a particle size distribution, and measurement of particle concentration as a function of distance from the vehicle in determining the at least one state of the vehicle ; and at least one memory to store at least operating instructions implemented by the controller in determining the at least one operating state of the vehicle . at least two particle detectors configured to collect a sample volume, the sample volume used by each particle detector of the at least two particle detectors collected in a different location relative to the vehicle than another sample volume used by another particle detector of the at least two particle detectors , wherein at least one sample volume is collected in an environment where particles being detected by an associated particle detector are disturbed by the vehicle when the vehicle is in motion; a controller in communication with the at least two particle detectors , the controller configured to determine at least one operating state of the vehicle based at least in part on a comparison of output signals of the at least two particle detectors wherein, the controller is configured to use particle velocity and at least one of measurement of a particle size distribution, and measurement of particle concentration as a function of distance from the vehicle in determining the at least one state of the vehicle ; and at least one memory to store at least operating instructions implemented by the controller in determining the at least one operating state of the vehicle .
A method for placing on a carrier substrate a semiconductor device , the method comprising: - providing a semiconductor substrate comprising a rectangular shaped assist chip , bordered by scribe lines , which assist chip comprises at least one semiconductor device ; - dicing the semiconductor substrate along all scribe lines to singulate the rectangular shaped assist chip ; - providing a carrier substrate ; - transferring to and placing on the carrier substrate the rectangular shaped assist chip ; and - singulating the at least one semiconductor device , while remaining attached to the carrier substrate , by removing the part of the rectangular shaped assist chip other than the at least one semiconductor device , wherein an adhesive is applied on the carrier substrate ; wherein placing the rectangular shaped assist chip on the carrier substrate comprises making physical contact between the assist chip and the adhesive at least at a location of the at least one semiconductor device ; wherein the at least one semiconductor device is surrounded by a metal-free border outlining the semiconductor device ; wherein singulating the at least one semiconductor device comprises etching the metal-free border , and wherein at least one semiconductor device has a shape other than rectangular. - providing a semiconductor substrate comprising a rectangular shaped assist chip , bordered by scribe lines , which assist chip comprises at least one semiconductor device ; - dicing the semiconductor substrate along all scribe lines to singulate the rectangular shaped assist chip ; - providing a carrier substrate ; - transferring to and placing on the carrier substrate the rectangular shaped assist chip ; and - singulating the at least one semiconductor device , while remaining attached to the carrier substrate , by removing the part of the rectangular shaped assist chip other than the at least one semiconductor device , wherein an adhesive is applied on the carrier substrate ; wherein placing the rectangular shaped assist chip on the carrier substrate comprises making physical contact between the assist chip and the adhesive at least at a location of the at least one semiconductor device ; wherein the at least one semiconductor device is surrounded by a metal-free border outlining the semiconductor device ; wherein singulating the at least one semiconductor device comprises etching the metal-free border , and wherein at least one semiconductor device has a shape other than rectangular.
Guiding and calibration device of a blown plastic film, comprising a bearing structure which provides along an ideal circumference equidistant rotation fulcrums of rotating structures , each rotating structure comprises a rotating vertical upright and at least one arm fixed to said rotating vertical upright , a vertical floating element is rotatably fixed to the at least one arm , guide means of the blown plastic film are fixed to the vertical floating element , the rotating structures are connected to each other through motion synchronization means operated by at least one motor , characterized in that the device further comprises pairs of rectilinear thrust bars in which a first bar and a second bar are both integrally fixed to a same vertical floating element and form a fixed angle (α) between them, each bar of each pair of bars having a length such as to slidably rest on vertical floating elements (5', 5") adjacent to said vertical floating element to which said bars are fixed, in any position taken by the device between a maximum opening position and a minimum opening position. each rotating structure comprises a rotating vertical upright and at least one arm fixed to said rotating vertical upright , a vertical floating element is rotatably fixed to the at least one arm , guide means of the blown plastic film are fixed to the vertical floating element , the rotating structures are connected to each other through motion synchronization means operated by at least one motor , characterized in that the device further comprises pairs of rectilinear thrust bars in which a first bar and a second bar are both integrally fixed to a same vertical floating element and form a fixed angle (α) between them, each bar of each pair of bars having a length such as to slidably rest on vertical floating elements (5', 5") adjacent to said vertical floating element to which said bars are fixed, in any position taken by the device between a maximum opening position and a minimum opening position.
Mammography system having a. a stand unit for arrangement of the mammography system on the floor; b. an L-shaped source unit , one arm of which is connected to an X-ray detector in a rotatably mounted manner on a front face of the stand unit, and the other arm protrudes substantially perpendicularly, with the result that an X-ray source is arranged at the end of the source unit remote from the stand unit; c. a substantially U-shaped protective unit , the first arm of which is attached to the stand unit, in particular to a rear face thereof, in a rotatably mounted manner in particular such that it can rotate independently of the source unit, the second arm extends along the top face of the source unit in a first operating state, and the third arm has, at the end of the protective unit remote from the stand element, a protective shield for supporting the patient's head, characterised in that the protective unit comprises sensors for collision protection. a. a stand unit for arrangement of the mammography system on the floor; b. an L-shaped source unit , one arm of which is connected to an X-ray detector in a rotatably mounted manner on a front face of the stand unit, and the other arm protrudes substantially perpendicularly, with the result that an X-ray source is arranged at the end of the source unit remote from the stand unit; c. a substantially U-shaped protective unit , the first arm of which is attached to the stand unit, in particular to a rear face thereof, in a rotatably mounted manner in particular such that it can rotate independently of the source unit, the second arm extends along the top face of the source unit in a first operating state, and the third arm has, at the end of the protective unit remote from the stand element, a protective shield for supporting the patient's head, characterised in that the protective unit comprises sensors for collision protection.
A substantially pure, isotopically-enriched compound selected from the following compounds or a pharmaceutically acceptable salt thereof.
A laser welding method for joining two components of a product (P) of the electronic cigarette industry or of the pharmaceutical industry, wherein the product (P) comprises a first component (P1) and a second component (P2) which must be welded to each other, at a surface to be welded, along a welding path (S); the welding method comprising the following steps: - disposing the first component (P1) and the second component (P2) to face a laser welding head at an area for emitting a laser beam (R) in such a way that the laser beam (R) is perpendicular to the surface to be welded at a first point of the welding path (S); - activating the laser beam (R) and moving the product (P) while holding the laser head still, so that the laser beam (R) remains at right angles to the surface to be welded and travels along the welding path (S) to weld the first component (P1) and the second component (P2) along the welding path (S), characterized in that the step of disposing the first component (P1) and the second component (P2) to face the laser welding head is performed by picking up the product (P) from a product (P) feed device according to a vertical movement. the welding method comprising the following steps: - disposing the first component (P1) and the second component (P2) to face a laser welding head at an area for emitting a laser beam (R) in such a way that the laser beam (R) is perpendicular to the surface to be welded at a first point of the welding path (S); - activating the laser beam (R) and moving the product (P) while holding the laser head still, so that the laser beam (R) remains at right angles to the surface to be welded and travels along the welding path (S) to weld the first component (P1) and the second component (P2) along the welding path (S), - disposing the first component (P1) and the second component (P2) to face a laser welding head at an area for emitting a laser beam (R) in such a way that the laser beam (R) is perpendicular to the surface to be welded at a first point of the welding path (S); - activating the laser beam (R) and moving the product (P) while holding the laser head still, so that the laser beam (R) remains at right angles to the surface to be welded and travels along the welding path (S) to weld the first component (P1) and the second component (P2) along the welding path (S), characterized in that the step of disposing the first component (P1) and the second component (P2) to face the laser welding head is performed by picking up the product (P) from a product (P) feed device according to a vertical movement.