mhurhangee/patent-ind-claim-en huggingface dataset:
An inkjet printing apparatus comprising: a stage (STA) for mounting a target substrate (SUBB); and an inkjet head positioned above the stage (STA), wherein the inkjet head includes: an ejection part (DA) including a plurality of nozzles that are configured to spray ink containing a plurality of particles; a filter part (FA) disposed above the ejection part (DA) that is configured to selectively pass the plurality of particles; and an electric field generating electrode that is disposed in the filter part (FA) and is configured to generate an electric field in the filter part (FA), wherein the electric field generating electrode includes: a first electric field generating electrode ; and a second electric field generating electrode spaced apart from the first electric field generating electrode , wherein the second electric field generating electrode is disposed above the first electric field generating electrode and overlaps the first electric field generating electrode in a plan view. a stage (STA) for mounting a target substrate (SUBB); and an inkjet head positioned above the stage (STA), wherein the inkjet head includes: an ejection part (DA) including a plurality of nozzles that are configured to spray ink containing a plurality of particles; a filter part (FA) disposed above the ejection part (DA) that is configured to selectively pass the plurality of particles; and an electric field generating electrode that is disposed in the filter part (FA) and is configured to generate an electric field in the filter part (FA), wherein the electric field generating electrode includes: an ejection part (DA) including a plurality of nozzles that are configured to spray ink containing a plurality of particles; a filter part (FA) disposed above the ejection part (DA) that is configured to selectively pass the plurality of particles; and an electric field generating electrode that is disposed in the filter part (FA) and is configured to generate an electric field in the filter part (FA), wherein the electric field generating electrode includes: a first electric field generating electrode ; and a second electric field generating electrode spaced apart from the first electric field generating electrode , wherein the second electric field generating electrode is disposed above the first electric field generating electrode and overlaps the first electric field generating electrode in a plan view.
A wiping apparatus usable with a fluid applicator , the wiping apparatus comprising: a web material including a plurality of segment portions to wipe the fluid applicator ; and a web storage chamber having an input opening and an output opening , the web storage chamber to store the web material in a multi-folded state such that each one of a plurality of folds of the web material is placed between adjacent segment portions characterized in that exterior surfaces of the adjacent segment portions contact each other. a web material including a plurality of segment portions to wipe the fluid applicator ; and a web storage chamber having an input opening and an output opening , the web storage chamber to store the web material in a multi-folded state such that each one of a plurality of folds of the web material is placed between adjacent segment portions characterized in that exterior surfaces of the adjacent segment portions contact each other.
Device for passing lines , pipes and/or cables through a building part, comprising a housing having a housing wall , the housing having an axial passage channel which is delimited by the housing wall , runs in the longitudinal direction (L), and has an opening at each of the opposite ends , at least two sealing arrangements (16, 16', 17, 17'; 50; 51, 52; 53, 54) being provided in the housing interior , each designed to seal the passage channel and forming a sealing surface , the first sealing surface having a plurality of sealing elements (22; 55) which are elongate, extend in a first main direction , and are adjacent to one another, characterized in that the second sealing surface has a plurality of sealing elements (22; 55) which are elongate, extend in a second main direction , and are adjacent to one another, the first main direction and the second main direction differing from one another with respect to a transverse plane (E) perpendicular to the longitudinal direction (L).
An arrangement for x-rays, in particular hard x-rays, for obtaining quantitative x-ray images from a sample, said arrangement being characterized by : a) an X-ray source (x-ray) providing an X-ray beam along an X-ray beam path; b1) a first phase-shift grating (G1) and a second phase-shift grating (G2) placed consecutively along the X-ray beam path, wherein the first and the second phase-shift grating (G1, G2) each comprising a periodic grating structure generating a X-ray phase shift difference, b2) the second phase-shift grating (G2) either of π or odd multiples thereof (denoted as π shift), or π/2 or π/2+N×2×π (denoted as π/2 shift), where N is a integer number; and wherein b3) the first phase-shift grating (G1) is adapted to create a periodic interference pattern at a known distance downstream, such that said periodic interference pattern acts as a structured illumination onto the second phase-shift grating (G2) to generate a large-period interference pattern on a position-sensitive detector (PSD); c) said position-sensitive detector (PSD) with spatially modulated detection sensitivity having a number of individual pixels; d) means for recording the images of the detector (PSD); e) means for evaluating the intensities for each pixel in a series of images in order to identify the characteristic of the object for each individual pixel as an absorption dominated pixel and/or a differential phase contrast dominated pixel and/or an x-ray scattering dominated pixel. a) an X-ray source (x-ray) providing an X-ray beam along an X-ray beam path; b1) a first phase-shift grating (G1) and a second phase-shift grating (G2) placed consecutively along the X-ray beam path, wherein the first and the second phase-shift grating (G1, G2) each comprising a periodic grating structure generating a X-ray phase shift difference, b2) the second phase-shift grating (G2) either of π or odd multiples thereof (denoted as π shift), or π/2 or π/2+N×2×π (denoted as π/2 shift), where N is a integer number; and wherein b3) the first phase-shift grating (G1) is adapted to create a periodic interference pattern at a known distance downstream, such that said periodic interference pattern acts as a structured illumination onto the second phase-shift grating (G2) to generate a large-period interference pattern on a position-sensitive detector (PSD); c) said position-sensitive detector (PSD) with spatially modulated detection sensitivity having a number of individual pixels; d) means for recording the images of the detector (PSD); e) means for evaluating the intensities for each pixel in a series of images in order to identify the characteristic of the object for each individual pixel as an absorption dominated pixel and/or a differential phase contrast dominated pixel and/or an x-ray scattering dominated pixel.
A method of modifying an organic semiconductor film, comprising the steps of adding an amount of one or more low molecular weight alkyl-containing molecules to a solution of one or more organic semiconductors, and forming the organic semiconductor film from the solution, wherein the low molecular weight alkyl-containing molecules are selected from the group consisting of C 1 -C 20 alkanes substituted with one or more substituents selected from aldehyde, dioxo, hydroxy, thiol, thioalkyl, amine, amide, thioether, and epoxide groups; characterized in that : the low molecular weight alkyl-containing molecules are selected from C 1 -C 20 alkanes substituted with at least one hydroxy group and at least one thiol group; or the one or more low molecular weight alkyl-containing molecules are selected from C 1 -C 20 dithioalkanes; and with the proviso that di-halo substituted compounds are excluded from the low molecular weight alkyl-containing molecules. the low molecular weight alkyl-containing molecules are selected from C 1 -C 20 alkanes substituted with at least one hydroxy group and at least one thiol group; or the one or more low molecular weight alkyl-containing molecules are selected from C 1 -C 20 dithioalkanes; and with the proviso that di-halo substituted compounds are excluded from the low molecular weight alkyl-containing molecules.
A surface cleaning apparatus comprising: a housing having a cleaning head coupling section for coupling to the cleaning head and a handle coupling section for coupling to a handle member ; a cleaning head coupled to the cleaning head coupling section ; and a handle member coupled to the handle coupling section of the housing , the handle member being movable between an in-use position and a storage position, wherein the handle member rotates about the handle coupling section of the housing to transition the handle member from the in-use position to the storage position, wherein the cleaning head includes a first end disposed opposite a second end along a longitudinal axis , and wherein the handle member rotates about a handle rotation axis when transitioning from the in-use position to storage position, characterized in that the handle rotation axis is substantially perpendicular to the longitudinal axis of the cleaning head . a housing having a cleaning head coupling section for coupling to the cleaning head and a handle coupling section for coupling to a handle member ; a cleaning head coupled to the cleaning head coupling section ; and a handle member coupled to the handle coupling section of the housing , the handle member being movable between an in-use position and a storage position, wherein the handle member rotates about the handle coupling section of the housing to transition the handle member from the in-use position to the storage position, wherein the cleaning head includes a first end disposed opposite a second end along a longitudinal axis , and wherein the handle member rotates about a handle rotation axis when transitioning from the in-use position to storage position, characterized in that the handle rotation axis is substantially perpendicular to the longitudinal axis of the cleaning head .
An apparatus comprising: - means for obtaining , in an apparatus, information characterizing physical surroundings of the apparatus; - means for transmitting the information characterizing the physical surroundings to a network entity; - means for receiving , responsive to the transmission, provisioning information and for associating the apparatus with the provisioning information, characterized in that the provisioning information associates the apparatus with a user account and in that the provisioning information comprises an embedded subscriber identity module provisioning information. - means for obtaining , in an apparatus, information characterizing physical surroundings of the apparatus; - means for transmitting the information characterizing the physical surroundings to a network entity; - means for receiving , responsive to the transmission, provisioning information and for associating the apparatus with the provisioning information,
An anode material, comprising: anode active material particles , wherein the anode active material particles include at least one selected from the group consisting of indium metal, a lithium alloy, titanium oxide, and lithium titanate; and first solid electrolyte particles , wherein the first solid electrolyte particles include Li, M, and X, and do not include sulfur; the first solid electrolyte particles are a material represented by the following composition formula : Li α M β X γ Formula where α, β, and γ are each independently a value greater than 0, M is at least one selected from the group consisting of metalloid elements and metal elements other than Li, and M includes yttrium; X is at least one selected from the group consisting of Cl, Br, and I; a volume ratio Vn representing a volume of the anode active material particles to the total volume of the anode active material particles and the first solid electrolyte particles is not less than 0.3 and not more than 0.95; and the anode active material particles are an active material capable of storing and releasing lithium ions at a potential with respect to lithium of not less than 0.27 V, measured as described in the specification. anode active material particles , wherein the anode active material particles include at least one selected from the group consisting of indium metal, a lithium alloy, titanium oxide, and lithium titanate; and first solid electrolyte particles , wherein the first solid electrolyte particles include Li, M, and X, and do not include sulfur; the first solid electrolyte particles are a material represented by the following composition formula : Li α M β X γ Formula where α, β, and γ are each independently a value greater than 0, M is at least one selected from the group consisting of metalloid elements and metal elements other than Li, and M includes yttrium; X is at least one selected from the group consisting of Cl, Br, and I; a volume ratio Vn representing a volume of the anode active material particles to the total volume of the anode active material particles and the first solid electrolyte particles is not less than 0.3 and not more than 0.95; and the anode active material particles are an active material capable of storing and releasing lithium ions at a potential with respect to lithium of not less than 0.27 V, measured as described in the specification.
A method performed by a user equipment , the method comprising: receiving first information indicating a plurality of physical random access channel resources configured for beam failure recovery; and receiving second information indicating a command for a set of the plurality of physical random access channel resources, wherein each of the plurality of physical random access channel resources is associated with a downlink reference signal of a plurality of downlink reference signals; wherein receiving the second information indicating the command for the set of the plurality of physical random access channel resources comprises receiving the second information via a medium access control control element; and wherein the second information comprises a bitmap, and each bit of the bitmap indicates the command for a physical random access channel resource of the set of the plurality of physical random access channel resources. receiving first information indicating a plurality of physical random access channel resources configured for beam failure recovery; and receiving second information indicating a command for a set of the plurality of physical random access channel resources, wherein each of the plurality of physical random access channel resources is associated with a downlink reference signal of a plurality of downlink reference signals; wherein receiving the second information indicating the command for the set of the plurality of physical random access channel resources comprises receiving the second information via a medium access control control element; and wherein the second information comprises a bitmap, and each bit of the bitmap indicates the command for a physical random access channel resource of the set of the plurality of physical random access channel resources.
A method for increasing the thickness of a sheet of CNTs , comprising: providing a wet continuous sheet of CNTs, wherein a continuous sheet of CNTs is an elongated sheet whose length is orders of magnitude greater than its width and wherein the wet continuous sheet of CNTs has been manufactured as follows: in a container filled with a liquid solution comprising CNTs at certain concentration, submerging a vacuum tank having a lower surface forming a grillage, moving an elongated filtering membrane along the lower surface of the vacuum tank while vacuum is applied on the elongated filtering membrane in such a way that in the surface of the filtering membrane opposed to the surface in contact with the lower surface of the vacuum tank CNTs are deposited forming a continuous sheet of CNTs of constant thickness, taking the filtering membrane together with the continuous sheet of CNTs out of the container , separating the wet continuous sheet of CNTs from the filtering membrane , drying the wet continuous sheet of CNTs by applying heat from a heat source , wherein the heat source is an infrared irradiation source. providing a wet continuous sheet of CNTs, wherein a continuous sheet of CNTs is an elongated sheet whose length is orders of magnitude greater than its width and wherein the wet continuous sheet of CNTs has been manufactured as follows: in a container filled with a liquid solution comprising CNTs at certain concentration, submerging a vacuum tank having a lower surface forming a grillage, moving an elongated filtering membrane along the lower surface of the vacuum tank while vacuum is applied on the elongated filtering membrane in such a way that in the surface of the filtering membrane opposed to the surface in contact with the lower surface of the vacuum tank CNTs are deposited forming a continuous sheet of CNTs of constant thickness, taking the filtering membrane together with the continuous sheet of CNTs out of the container , in a container filled with a liquid solution comprising CNTs at certain concentration, submerging a vacuum tank having a lower surface forming a grillage, moving an elongated filtering membrane along the lower surface of the vacuum tank while vacuum is applied on the elongated filtering membrane in such a way that in the surface of the filtering membrane opposed to the surface in contact with the lower surface of the vacuum tank CNTs are deposited forming a continuous sheet of CNTs of constant thickness, taking the filtering membrane together with the continuous sheet of CNTs out of the container , separating the wet continuous sheet of CNTs from the filtering membrane , drying the wet continuous sheet of CNTs by applying heat from a heat source , wherein the heat source is an infrared irradiation source.
A medical imaging device , comprising: a rigid elongated member ; a distal member provided in a width of approximately 5.0 to 15 millimeters said distal member comprises a front camera located on a front planar surface of the distal member , a first side camera located on a first lateral surface of the distal member and a second side camera located on a second lateral surface of the distal member and wherein the distal member is directly connected to the rigid elongated member in a rigid manner; characterised in that the first side camera is located at a position closer to the front planar surface than the second side camera is. a rigid elongated member ; a distal member provided in a width of approximately 5.0 to 15 millimeters said distal member comprises a front camera located on a front planar surface of the distal member , a first side camera located on a first lateral surface of the distal member and a second side camera located on a second lateral surface of the distal member and wherein the distal member is directly connected to the rigid elongated member in a rigid manner; characterised in that the first side camera is located at a position closer to the front planar surface than the second side camera is.
A control system for a fan, the fan comprising a motor and a centrifugal turbine, said motor being controlled from a control law defined by a computer of the control system, characterized in that the control law results from the addition of two separate regulating laws: - a first constant torque regulating law to operate the motor over a first range of low flow rates, - a second constant flow rate regulating law in order to operate the motor over a second range of higher flow rates. - a first constant torque regulating law to operate the motor over a first range of low flow rates, - a second constant flow rate regulating law in order to operate the motor over a second range of higher flow rates.
Assembly for positioning and locking an inflatable balloon in position within a vertebral body, comprising an access piece to the vertebral body, which piece is cannulated and elongate, and an inflatable balloon mounted at the end of a catheter suitable for being connected to a fluid delivery unit, the balloon and catheter assembly being arranged to slide through the access piece , the access piece comprises means for anchoring in the vertebral body, characterized in that the assembly further comprises means for locking the catheter provided with the balloon in position on the access piece .
Sensor package comprising a sensor carrier with a sensor element , a pre-moulded tray part with an exposed cavity defined by a raised portion of the pre-moulded tray part surrounding the exposed cavity , the sensor carrier with the sensor element being positioned in a recess of the raised portion of the pre-moulded tray part to extend into the exposed cavity , a lead frame arranged to provide external connections of the sensor package , an over-moulding package part , arranged around the lead frame and the pre-moulded tray part and having an aperture aligned with the exposed cavity , characterized in that the recess of the pre-moulded tray part comprises at least one barrier formed on a side surface of the recess and wherein the barrier is arranged to extend inward into the recess for holding the sensor carrier in a predefined position in the recess . a sensor carrier with a sensor element , a pre-moulded tray part with an exposed cavity defined by a raised portion of the pre-moulded tray part surrounding the exposed cavity , the sensor carrier with the sensor element being positioned in a recess of the raised portion of the pre-moulded tray part to extend into the exposed cavity , a lead frame arranged to provide external connections of the sensor package , an over-moulding package part , arranged around the lead frame and the pre-moulded tray part and having an aperture aligned with the exposed cavity , characterized in that the recess of the pre-moulded tray part comprises at least one barrier formed on a side surface of the recess and wherein the barrier is arranged to extend inward into the recess for holding the sensor carrier in a predefined position in the recess .
Wood floor apparatus having a plurality of planks which are arranged in a mutually parallel manner, which are separated in pairwise fashion by joins , the surfaces of which form a planar wood floor and which are arranged, on a plurality of joists which are arranged in a mutually parallel manner at a predefined spacing, at a right angle to the joists , and having a plurality of channels , wherein the joists are placed in a fixed manner on a water-permeable percolation material , characterized in that the planks , in the region of their respective two side edges (112', 113'; 122', 123') which are parallel to a longitudinal axis, are provided with a rebate (112, 113; 122, 123), wherein the two rebates of two planks which are arranged next to one another at the predetermined spacing of a join form a long, narrow cavity for accommodating a channel which rests on an individual joist, the length of said channel being dimensioned to conduct water away, at an appropriate spacing from the relevant joist , between two joists into the percolation material .