mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a wireless communications network comprising a plurality of user terminals , a network management system and a plurality of base stations , the locations of the base stations being dynamically variable, wherein the base stations transmit signals comprising a plurality of data units containing reference signals for use in channel assessment by mobile stations receiving the transmissions, the method comprising the steps of: • maintaining, in the network management system , data relating to the base stations' relative positions; • selecting, by the network management system, a reference signal pattern density for one or more of the base stations in accordance with said data, and selecting, by the network management system, from a predetermined set of distribution patterns of reference symbols, a distribution pattern having the selected pattern density over the plurality of data units, • the network management system causing each base station to generate a signal configured according to a first protocol for transmission to one or more user terminals, the signal comprising reference signals arranged in the distribution pattern and density of the plurality of data units selected for that base station, • transmitting instructions from the network management system to one or more base stations modifying the selected reference signal densities for the respective base stations in response to changes in the maintained data relating to the relative positions of the base stations. • maintaining, in the network management system , data relating to the base stations' relative positions; • selecting, by the network management system, a reference signal pattern density for one or more of the base stations in accordance with said data, and selecting, by the network management system, from a predetermined set of distribution patterns of reference symbols, a distribution pattern having the selected pattern density over the plurality of data units, • the network management system causing each base station to generate a signal configured according to a first protocol for transmission to one or more user terminals, the signal comprising reference signals arranged in the distribution pattern and density of the plurality of data units selected for that base station, • transmitting instructions from the network management system to one or more base stations modifying the selected reference signal densities for the respective base stations in response to changes in the maintained data relating to the relative positions of the base stations.
A leadless neurostimulation device, comprising: a stimulation capsule comprising a proximal and a distal end, the stimulation capsule further comprising: a MEMS film comprising a plurality of electrodes , the MEMS film formed to define a lumen; a stimulation source disposed within the lumen and in electrical communication with at least one of the plurality of electrodes; and a power supply disposed within the lumen and in electrical communication with the stimulation source; and a tether coupled with the proximal end of the stimulation capsule. a stimulation capsule comprising a proximal and a distal end, the stimulation capsule further comprising: a MEMS film comprising a plurality of electrodes , the MEMS film formed to define a lumen; a stimulation source disposed within the lumen and in electrical communication with at least one of the plurality of electrodes; and a power supply disposed within the lumen and in electrical communication with the stimulation source; and a MEMS film comprising a plurality of electrodes , the MEMS film formed to define a lumen; a stimulation source disposed within the lumen and in electrical communication with at least one of the plurality of electrodes; and a power supply disposed within the lumen and in electrical communication with the stimulation source; and a tether coupled with the proximal end of the stimulation capsule.
Free-flowing topinambur granulate, characterized by a content of minimum 30 % carbohydrates by weight, minimum 20 % solid water-insoluble binder by weight and a water content of less than 4 % by weight, wherein the weight ratio of the solid water-insoluble binder to the overall carbohydrate content is in the range of 3:1 to 2:3.
Apparatus for feeding bars, comprising: - first guide means configured to define a horizontal rectilinear sliding path for a bar, said first guide means comprising a plurality of bar guide units each of which comprises at least two semi-bearings cooperating with each other to define an opening for the guided passage of the bar, said semi-bearings being movable with the possibility to assume a plurality of closed positions, in which said semi-bearings define apertures of different widths for the guided passage of bars of different diameters; - a rod movable along said sliding path, said rod being provided with gripping means configured to take a bar that is coupled to said first guide means ; - second guide means for guiding a sliding of said rod along said sliding path; - a conveyor slider configured to push said rod along said sliding path in such a way as to provide a feed motion to a bar which has been taken by said rod ; characterized in that at least one of said two semi-bearings is provided with a stop end , said apparatus comprising a plurality of cam profiles , one for each of said bar guide units , each cam profile being arranged to interact in contact with said stop end of the respective bar guide unit to act as an end of stroke defining a maximum stroke of a closing movement of the semi-bearing provided with said stop end , each cam profile being adjustable to vary said maximum stroke as a function of a diameter of the bar. - first guide means configured to define a horizontal rectilinear sliding path for a bar, said first guide means comprising a plurality of bar guide units each of which comprises at least two semi-bearings cooperating with each other to define an opening for the guided passage of the bar, said semi-bearings being movable with the possibility to assume a plurality of closed positions, in which said semi-bearings define apertures of different widths for the guided passage of bars of different diameters; - a rod movable along said sliding path, said rod being provided with gripping means configured to take a bar that is coupled to said first guide means ; - second guide means for guiding a sliding of said rod along said sliding path; - a conveyor slider configured to push said rod along said sliding path in such a way as to provide a feed motion to a bar which has been taken by said rod ;
A pre-loaded device capsule comprising: a housing defining a plurality of delivery chambers and having an entrance and an exit end , wherein the delivery chambers are revolvable and each of the chambers is configured to include a separate occluding implant loaded therein; a plurality of bioabsorbable, lumen-occluding implants each loaded in one of the plurality of delivery chambers , having a bioabsorbable suture line coupled to each of the implants and being configured to extend therefrom, and a pressure imbibing port that is configured to receive an imbibing fluid, the imbibing fluid comprising a therapeutic agent, and the pressure imbibing port being configured to simultaneously imbibe the bioabsorbable, lumen-occluding implants prior to implantation; wherein the housing comprises a female taper fitting about the entrance end and a male taper fitting about the exit end . a housing defining a plurality of delivery chambers and having an entrance and an exit end , wherein the delivery chambers are revolvable and each of the chambers is configured to include a separate occluding implant loaded therein; a plurality of bioabsorbable, lumen-occluding implants each loaded in one of the plurality of delivery chambers , having a bioabsorbable suture line coupled to each of the implants and being configured to extend therefrom, and a pressure imbibing port that is configured to receive an imbibing fluid, the imbibing fluid comprising a therapeutic agent, and the pressure imbibing port being configured to simultaneously imbibe the bioabsorbable, lumen-occluding implants prior to implantation; wherein the housing comprises a female taper fitting about the entrance end and a male taper fitting about the exit end .
Method for carrying out a test process relating to a rail vehicle in which - a stationary control unit and a simulation unit are provided on the land side, - a data connection is established between the stationary control unit and the rail vehicle , - a data connection is established between the stationary control unit and the simulation unit , - the test process comprises data traffic of the stationary control unit with the rail vehicle and the simulation unit , characterised in that - the simulation unit has real vehicle components and a simulation environment in which the vehicle components are embedded, wherein simulation components of the simulation environment are used to reproduce the real environment of the vehicle components in the system formed by the rail vehicle , and - process data of a vehicle process, which represents an actual condition of the rail vehicle, is transferred to the stationary control unit and the stationary control unit performs an assessment of the process data on the basis of simulation data of a simulation process, which represents a target condition of the rail vehicle. - a stationary control unit and a simulation unit are provided on the land side, - a data connection is established between the stationary control unit and the rail vehicle , - a data connection is established between the stationary control unit and the simulation unit , - the test process comprises data traffic of the stationary control unit with the rail vehicle and the simulation unit , characterised in that - the simulation unit has real vehicle components and a simulation environment in which the vehicle components are embedded, wherein simulation components of the simulation environment are used to reproduce the real environment of the vehicle components in the system formed by the rail vehicle , and - process data of a vehicle process, which represents an actual condition of the rail vehicle, is transferred to the stationary control unit and the stationary control unit performs an assessment of the process data on the basis of simulation data of a simulation process, which represents a target condition of the rail vehicle.
A program for a terminal apparatus , the terminal apparatus including an input unit (F11), a direction sensor (F12, 151), a communication unit (F15, 140) and a processor , the input unit (F11) accepting from a user an instruction in a state with the terminal apparatus being arranged at a known, predetermined listening position that is different from a reference position (Pref), the reference position (Pref) being a preset position in front of a first loudspeaker (SP1) connected to a sound apparatus , the instruction indicating that the terminal apparatus is oriented toward a first direction, the first direction being a direction in which a virtual sound source is to be arranged, the direction sensor (F12) detecting a direction in which the terminal apparatus is oriented, the communication unit (F15) performing communication with the sound apparatus , the program causing the processor to execute: acquiring from the direction sensor (F12) first direction information indicating the first direction, in response to the input unit accepting the instruction, wherein the first direction is indicated with respect to a direction from the listening position (Pref) to the first loudspeaker (SP1); generating virtual sound source position information based on listening position information, the first direction information and boundary information, the listening position information indicating a coordinate of the listening position with the reference position (Pref) as an origin, the boundary information indicating a boundary of a space where the virtual sound source is to be arranged, the virtual sound source position information indicating a coordinate of the virtual sound source on the boundary with the reference position as the origin; and transmitting the virtual sound source position information to the sound apparatus , by using the communication unit. acquiring from the direction sensor (F12) first direction information indicating the first direction, in response to the input unit accepting the instruction, wherein the first direction is indicated with respect to a direction from the listening position (Pref) to the first loudspeaker (SP1); generating virtual sound source position information based on listening position information, the first direction information and boundary information, the listening position information indicating a coordinate of the listening position with the reference position (Pref) as an origin, the boundary information indicating a boundary of a space where the virtual sound source is to be arranged, the virtual sound source position information indicating a coordinate of the virtual sound source on the boundary with the reference position as the origin; and transmitting the virtual sound source position information to the sound apparatus , by using the communication unit.
An antibody against programmed death-1 (PD-1) or antigen-binding fragment thereof, comprising a heavy chain variable region comprising the amino acid sequence of SEQ ID NO: 3 and a light chain variable region comprising the amino acid sequence of SEQ ID NO: 4.
A method for manufacturing a solid oxide fuel cell comprising: preparing a laminate laminating a composition layer for preparing an electrolyte, and at least one of a composition layer for preparing a fuel electrode and a composition layer for preparing an air electrode on the composition layer for preparing an electrolyte; and forming a pattern comprising protrusions and grooves on all the composition layers in the laminate using a porous plate while simultaneously sintering each of the composition layers of the laminate, wherein a shape of the pattern formed in the sintering and the pattern forming is a wave pattern shape on a section in a thickness direction of the laminate, and wherein the sintering and the pattern forming comprises providing the laminate between two of the porous plates, and sintering the laminate, and removing the porous plates. preparing a laminate laminating a composition layer for preparing an electrolyte, and at least one of a composition layer for preparing a fuel electrode and a composition layer for preparing an air electrode on the composition layer for preparing an electrolyte; and forming a pattern comprising protrusions and grooves on all the composition layers in the laminate using a porous plate while simultaneously sintering each of the composition layers of the laminate, wherein a shape of the pattern formed in the sintering and the pattern forming is a wave pattern shape on a section in a thickness direction of the laminate, and wherein the sintering and the pattern forming comprises providing the laminate between two of the porous plates, and sintering the laminate, and removing the porous plates.
An article comprising, in order: a substrate; a hardcoat comprising: a binder; and a mixture of nanoparticles in a range from 60 wt.% to 90 wt.%, based on the total weight of the hardcoat, wherein a range from 10 wt.% to 50 wt.% of the nanoparticles comprise a first group of nanoparticles having an average particle diameter in a range from 2 nm to 200 nm, and in a range from 50 wt.% to about 90 wt.% of the nanoparticles comprise a second group of nanoparticles having an average particle diameter in a range from 60 nm to 400 nm, based on the total weight of nanoparticles in the hardcoat, and having a ratio of the average particle size of the first group of nanoparticles to the average particle size of the second group of nanoparticles are in a range from 1:2 to 1:200; a layer comprising SiO x C y , where 0<x<2 and 0<y<1; and a hydrophilic layer. a substrate; a hardcoat comprising: a binder; and a mixture of nanoparticles in a range from 60 wt.% to 90 wt.%, based on the total weight of the hardcoat, wherein a range from 10 wt.% to 50 wt.% of the nanoparticles comprise a first group of nanoparticles having an average particle diameter in a range from 2 nm to 200 nm, and in a range from 50 wt.% to about 90 wt.% of the nanoparticles comprise a second group of nanoparticles having an average particle diameter in a range from 60 nm to 400 nm, based on the total weight of nanoparticles in the hardcoat, and having a ratio of the average particle size of the first group of nanoparticles to the average particle size of the second group of nanoparticles are in a range from 1:2 to 1:200; a binder; and a mixture of nanoparticles in a range from 60 wt.% to 90 wt.%, based on the total weight of the hardcoat, wherein a range from 10 wt.% to 50 wt.% of the nanoparticles comprise a first group of nanoparticles having an average particle diameter in a range from 2 nm to 200 nm, and in a range from 50 wt.% to about 90 wt.% of the nanoparticles comprise a second group of nanoparticles having an average particle diameter in a range from 60 nm to 400 nm, based on the total weight of nanoparticles in the hardcoat, and having a ratio of the average particle size of the first group of nanoparticles to the average particle size of the second group of nanoparticles are in a range from 1:2 to 1:200; a layer comprising SiO x C y , where 0<x<2 and 0<y<1; and a hydrophilic layer.
Limited rotation slewing ring crane comprising: a pedestal , a column rotatively coupled, about a first rotation axis, to the pedestal by a slewing ring rotative coupling , means for limiting the relative rotation of the column with respect to the pedestal , and a rotative sensor adapted to measure a rotation angle of the column with respect to the pedestal , wherein said rotation sensor comprises: - a tubular body , axially extending from the base of the column , rotatively integral with the same and axially protruding from the same towards the inside of the pedestal ; - a stationary body connected to the pedestal and a wheel , rotatable with respect to the stationary body about a second rotation axis, which is meshed by the tubular body , wherein the second rotation axis of the wheel with respect to the stationary body is offset with respect to the first rotation axis of the column with respect to the pedestal ; - means for sensing the angular position of the wheel with respect to the stationary body ; - a plurality of hydraulic tubes and/or electric cables passing through said tubular body . - a tubular body , axially extending from the base of the column , rotatively integral with the same and axially protruding from the same towards the inside of the pedestal ; - a stationary body connected to the pedestal and a wheel , rotatable with respect to the stationary body about a second rotation axis, which is meshed by the tubular body , wherein the second rotation axis of the wheel with respect to the stationary body is offset with respect to the first rotation axis of the column with respect to the pedestal ; - means for sensing the angular position of the wheel with respect to the stationary body ; - a plurality of hydraulic tubes and/or electric cables passing through said tubular body .
A method for the lithography-based generative production of three-dimensional shaped articles, in which a build platform is positioned at a distance from a material support permeable to the radiation of a radiation source in at least certain areas for a material solidifiable by exposure to said radiation, wherein the material support is translationally moved between a first position and a second position, wherein material is applied at a defined layer thickness by means of a material introduction device during the movement of the material support from the first position to the second position, after this the applied material, between the build platform and the material support , is location- and/or time-selectively irradiated by the radiation source and solidified, and subsequently material is removed from the material support by means of the material introduction device during the movement of the material support from the second position to the first position.
A liquid ejecting apparatus , comprising: a supporting section configured to support a medium; a first ejecting section capable of ejecting a pretreatment liquid onto the medium supported by the supporting section; a first holding section configured to hold the first ejecting section; and a leveling section provided on the first holding section and being capable of moving between a leveling position (P1) in contact with an ejection region (R) onto which the pretreatment liquid is ejected and a non-leveling position (P2) in non-contact with the ejection region of the medium; and characterized in that , the first holding section is capable of performing a reciprocating movement in a scanning direction (B) where the scanning direction is a direction which is perpendicular to and intersects a direction of movement of the supporting section, the first ejecting section is configured to eject the pretreatment liquid in accordance with the reciprocating movement of the first holding section, and the leveling section is provided at the first holding section to move with the first ejecting section. a supporting section configured to support a medium; a first ejecting section capable of ejecting a pretreatment liquid onto the medium supported by the supporting section; a first holding section configured to hold the first ejecting section; and a leveling section provided on the first holding section and being capable of moving between a leveling position (P1) in contact with an ejection region (R) onto which the pretreatment liquid is ejected and a non-leveling position (P2) in non-contact with the ejection region of the medium; and characterized in that , the first holding section is capable of performing a reciprocating movement in a scanning direction (B) where the scanning direction is a direction which is perpendicular to and intersects a direction of movement of the supporting section, the first ejecting section is configured to eject the pretreatment liquid in accordance with the reciprocating movement of the first holding section, and the leveling section is provided at the first holding section to move with the first ejecting section.