mhurhangee/ep-ind-claims huggingface dataset:
A cell separation chip for separating cells from a solution containing the cells, comprising: an upper plate; a membrane located in a predetermined region of the upper plate where the solution containing cells is discharged to; and an absorption means positioned at a lower end of the upper plate so as to absorb a solution which has penetrated the membrane from the solution containing the cells; and a lower plate positioned at the lower end of the upper plate by being connected to the absorption means, wherein the membrane comprises: an upper end region forming an upper end of the membrane as a region where the solution containing cells is contacted first and wherein cells from the solution containing cells are left on an upper side of the membrane; wherein the upper end region has a hole with a diameter of 2 μm or smaller; and a lower end region forming a lower end of the membrane as a region where the solution is contacted with the absorption means; wherein the lower end region has a hole with a diameter of 10 μm or greater. and a lower plate positioned at the lower end of the upper plate by being connected to the absorption means, wherein the membrane comprises: an upper end region forming an upper end of the membrane as a region where the solution containing cells is contacted first and wherein cells from the solution containing cells are left on an upper side of the membrane; wherein the upper end region has a hole with a diameter of 2 μm or smaller; and a lower end region forming a lower end of the membrane as a region where the solution is contacted with the absorption means; wherein the lower end region has a hole with a diameter of 10 μm or greater.
Needle-removing tool for needles (4, 5) on needle boards, in particular of needling machines, characterized in that the needle-removing tool has a hollow mechanical expulsion means for intact and defective needles (4, 5) that is rotationally and linearly movable and at the same time motor-driven.
A method for making a bag, the method comprising: providing a flat paper having portions for a top, two sides, and a bottom, forming a horizontal score line in the paper within a range from about 0.5 inches (1.27 cm) to about 2.5 inches (6.35 cm) from the top and extending the width of the paper, forming at least two horizontal slits located about 3 inches (7.62 cm) to about 6 inches (15.24 cm) down from the top and is about 3 inches (7.62 cm) wide to about 6 inches (15.24 cm) wide, wherein each horizontal slit is located in a portion of the flat paper that will form the face of a resulting bag, joining the sides of the flat paper and forming a bottom of the bag, installing a handle assembly onto each exterior face of the bag, wherein the handle assembly comprises a handle secured to a patch, and wherein the installation comprises inserting the handle of the handle assembly from the interior of the bag up through a horizontal slit, and securing the patch to the interior of the bag such that the handle extends through the horizontal slit to the exterior of the bag. providing a flat paper having portions for a top, two sides, and a bottom, forming a horizontal score line in the paper within a range from about 0.5 inches (1.27 cm) to about 2.5 inches (6.35 cm) from the top and extending the width of the paper, forming at least two horizontal slits located about 3 inches (7.62 cm) to about 6 inches (15.24 cm) down from the top and is about 3 inches (7.62 cm) wide to about 6 inches (15.24 cm) wide, wherein each horizontal slit is located in a portion of the flat paper that will form the face of a resulting bag, joining the sides of the flat paper and forming a bottom of the bag, installing a handle assembly onto each exterior face of the bag, wherein the handle assembly comprises a handle secured to a patch, and wherein the installation comprises inserting the handle of the handle assembly from the interior of the bag up through a horizontal slit, and securing the patch to the interior of the bag such that the handle extends through the horizontal slit to the exterior of the bag.
A method, comprising: determining a User Equipment, UE, (201, 302) density for each of plural groups of Remote Radio Heads, RRHs, (301, 501) in a set of RRHs (301, 501); selecting one of said RRH groups based on the UE (201, 302) density; and sending a Reference Signal, RS, signal from said selected one of said RRH groups (G1- G6). determining a User Equipment, UE, (201, 302) density for each of plural groups of Remote Radio Heads, RRHs, (301, 501) in a set of RRHs (301, 501); selecting one of said RRH groups based on the UE (201, 302) density; and sending a Reference Signal, RS, signal from said selected one of said RRH groups (G1- G6).
Method of manufacturing a helmet from thermally deformable reflective material comprising steps for: - providing a base material such as a plate material or a sheet material, - arranging on the base material an adhesive layer in the form of a polymerizable, substantially monomer mixture, preferably a photoactivatable monomer mixture, - positioning reflective particles on the monomer mixture, - subjecting the monomer mixture to a curing process providing a thermoplastic mixture for the purpose of fixing the reflective particles relative to the base material, thereby obtaining the reflective material, and - shaping or deforming the reflective material to a helmet shape wherein substantially the relative orientation between the base material and the reflective particles is retained because, under the influence of a suitable temperature for deforming the base material, the thermoplastic polymer mixture is co-deformable. - providing a base material such as a plate material or a sheet material, - arranging on the base material an adhesive layer in the form of a polymerizable, substantially monomer mixture, preferably a photoactivatable monomer mixture, - positioning reflective particles on the monomer mixture, - subjecting the monomer mixture to a curing process providing a thermoplastic mixture for the purpose of fixing the reflective particles relative to the base material, thereby obtaining the reflective material, and - shaping or deforming the reflective material to a helmet shape wherein substantially the relative orientation between the base material and the reflective particles is retained because, under the influence of a suitable temperature for deforming the base material, the thermoplastic polymer mixture is co-deformable.
A composition comprising, a plurality of solid carrier particles that each comprise silicon dioxide and that each have a surface and/or pores; and a compound of formula: or a pharmaceutically acceptable salt thereof in the pores or on the surface of the solid carrier particles.
A device for air-conditioning a building from a source of intermittent heat for which the maximum temperature Th is 70°C and from a heat sink at a temperature of 15°C, which comprises three or four thermochemical dipoles Da, Db, Dc and optionally Dd, each comprising an evaporator-condenser assembly EC and a reactor R respectively designated by ECa and Ra for Da, ECb and Rb for Db, ECc and Rc for Dc and ECd and Rd for Dd, connected through means which allow circulation of a gas G between them and means which allow interruption of the circulation of the gas, characterized in that: - the reactors are the center of reversible phenomena between the gas G and a liquid or a solid, and the evaporators-condensers are the center of a liquid-gas phase transition of G; - the rectors R are provided with means for exchanging heat with each other and means which allow control of the heat exchange; - the thermochemical phenomena in the different dipoles may be identical or different; - the device comprises a heat source at a variable temperature Tc, the maximum temperature Th of which is 70°C, and a heat sink at a temperature To of 15°C; - the thermochemical phenomena in the different dipoles have equilibrium curves such that, at a given equilibrium pressure, the respective equilibrium temperature differ by at most 15°C. - the reactors are the center of reversible phenomena between the gas G and a liquid or a solid, and the evaporators-condensers are the center of a liquid-gas phase transition of G; - the rectors R are provided with means for exchanging heat with each other and means which allow control of the heat exchange; - the thermochemical phenomena in the different dipoles may be identical or different; - the device comprises a heat source at a variable temperature Tc, the maximum temperature Th of which is 70°C, and a heat sink at a temperature To of 15°C; - the thermochemical phenomena in the different dipoles have equilibrium curves such that, at a given equilibrium pressure, the respective equilibrium temperature differ by at most 15°C.
Battery comprising, an electrode assembly, the electrode assembly including a pair of electrodes (111, 112) and a separator interposed there between, the electrode assembly having a first outer side, a second outer side, a third outer side, and a fourth outer side, the second outer side being opposite the first outer side; a short circuit induction member, the short circuit induction member being attached to and electrically connected to one electrode of the electrodes (111, 112); and a case, the electrode assembly and the short circuit induction member being disposed in the case, wherein the short circuit induction member has a U-shape and comprises a first leg, a second leg, and a bridging element, the third outer side of the electrode assembly facing the bridging element, the bridging element mechanically and electrically connecting the first leg to the second leg, the electrode assembly being interposed between the first leg and the second leg such that the first outer side of the electrode assembly is between the first leg and the second outer side, the fourth outer side of the electrode assembly being at least partially exposed by the short circuit induction member, characterized by a terminal part, the terminal part including a current collector, a terminal, and a fuse, the fuse being formed on the current collector, wherein the bridging element is arranged between the fuse and the electrode assembly.
Railway comprising a sleeper with an elastic sole placed on an underlying ballast bed with chippings on which the rails of the railway are to rest, whereby the sleeper rests on the elastic sole which is supported by the ballast bed, whereby the elastic sole has a top side which is fixed to a bottom side of the sleeper, whereby the elastic sole has a relief on a bottom side of the elastic sole increasing the lateral resistance against displacement of the sleeper in relation to the ballast bed, and whereby the relief comprises upright parts which at least partly extend with a free end between the chippings of the ballast bed so that the elastic sole at least partly encloses stones of the chippings, characterised in that the upright parts consist of elastically deformable studs.
Multi-layered tube comprising, from inside to outside: - an inner layer made from a thermoplastic elastomer, - a first reinforcement layer made from threads or strips spiralled in opposite directions, - a first intermediate layer made from an, in particular black coloured, thermoplastic elastomer, - a second reinforcement layer in particular made from threads or strips spiralled in opposite directions, - a layer, in particular a second intermediate layer or an outer layer, made from an, in particular coloured, for example black coloured, thermoplastic elastomer. - an inner layer made from a thermoplastic elastomer, - a first reinforcement layer made from threads or strips spiralled in opposite directions, - a first intermediate layer made from an, in particular black coloured, thermoplastic elastomer, - a second reinforcement layer in particular made from threads or strips spiralled in opposite directions, - a layer, in particular a second intermediate layer or an outer layer, made from an, in particular coloured, for example black coloured, thermoplastic elastomer.
An optical beam delivery device, comprising: a fiber (100; 200) comprising: a first length (104; 204; 1100; 1200; 1300; 1400; 1406; 1500; 1600) comprising a first refractive index profile formed to enable modification of one or more beam characteristics of an optical beam by perturbing the optical beam and/or perturbing the first length; and a second length (108; 208; 1700; 1800; 1900; 2000; 2100; 2600; 2700; 2800) having a second refractive index profile, characterised by the second RIP formed to maintain at least a portion of the modified beam characteristics of the optical beam within two or more confinement regions (216, 218, 220), wherein a first confinement region and a second confinement region (218, 220) of the two or more confinement regions are separated by a cladding structure (222, 224) having a refractive index that is lower than the indexes of the first confinement region and the second confinement region (218, 220), and wherein the first RIP and the second RIP are different. a first length (104; 204; 1100; 1200; 1300; 1400; 1406; 1500; 1600) comprising a first refractive index profile formed to enable modification of one or more beam characteristics of an optical beam by perturbing the optical beam and/or perturbing the first length; and a second length (108; 208; 1700; 1800; 1900; 2000; 2100; 2600; 2700; 2800) having a second refractive index profile, characterised by the second RIP formed to maintain at least a portion of the modified beam characteristics of the optical beam within two or more confinement regions (216, 218, 220), wherein a first confinement region and a second confinement region (218, 220) of the two or more confinement regions are separated by a cladding structure (222, 224) having a refractive index that is lower than the indexes of the first confinement region and the second confinement region (218, 220), and wherein the first RIP and the second RIP are different.
A system (10A, 10B) located in a subsea environment, comprising: a production tree positioned above a well, said production tree having a production outlet; a submersible pump positioned in said well, and a hydraulic motor that is operatively coupled to said submersible pump, characterised in that the system further comprises: a booster pump that is positioned on or near a floor of said subsea environment and adapted to receive a hydrocarbon fluid from said production outlet; and a separator that is adapted to receive a pressurized hydrocarbon fluid from an outlet of said booster pump and wherein said separator comprises a fluid outlet that is in fluid communication with said hydraulic motor. a production tree positioned above a well, said production tree having a production outlet; a submersible pump positioned in said well, and a hydraulic motor that is operatively coupled to said submersible pump, characterised in that the system further comprises: a booster pump that is positioned on or near a floor of said subsea environment and adapted to receive a hydrocarbon fluid from said production outlet; and a separator that is adapted to receive a pressurized hydrocarbon fluid from an outlet of said booster pump and wherein said separator comprises a fluid outlet that is in fluid communication with said hydraulic motor. a booster pump that is positioned on or near a floor of said subsea environment and adapted to receive a hydrocarbon fluid from said production outlet; and a separator that is adapted to receive a pressurized hydrocarbon fluid from an outlet of said booster pump and wherein said separator comprises a fluid outlet that is in fluid communication with said hydraulic motor.
A substrate having a dielectric film thereon, in which: the dielectric film comprises at least four stacked layers of a dielectric material; the stacked layers comprise compressive layers which are subject to a compressive stress, and tensile layers which are subject to a tensile stress; and there are at least two spaced apart tensile layers which are each adjacent to one or more compressive layers; characterised in that at least some adjacent compressive and tensile layers are separated by a transitional zone of the dielectric material, in which the transitional zone is subject to variable stresses which vary from a region of the transitional zone contacting a tensile layer, which region is subject to a tensile stress, to a region of the transitional zone contacting a compressive layer, which region is subject to a compressive stress.
A microwave device, such as a waveguide, transmission line, waveguide circuit, transmission line circuit or radio frequency part of an antenna system, the microwave device comprising: two conducting layers arranged with a gap there between, the gap between the conducting layers being filled with air, and without any dielectric substrate; a set of periodically or quasi-periodically arranged protruding elements fixedly connected to at least one of said conducting layers, thereby forming a texture to stop wave propagation in a frequency band of operation in other directions than along intended waveguiding paths; and at least one conducting ridge provided on at least one of said conductive layers, said conducting ridge not being in electrical contact with the other of said two conducting layers, said conducting ridge thereby forming said waveguiding paths; wherein all protruding elements are connected electrically to each other at their bases at least via said conductive layer on which they are fixedly connected, and wherein all of the protruding elements are in conductive contact also with the other conducting layer. two conducting layers arranged with a gap there between, the gap between the conducting layers being filled with air, and without any dielectric substrate; a set of periodically or quasi-periodically arranged protruding elements fixedly connected to at least one of said conducting layers, thereby forming a texture to stop wave propagation in a frequency band of operation in other directions than along intended waveguiding paths; and at least one conducting ridge provided on at least one of said conductive layers, said conducting ridge not being in electrical contact with the other of said two conducting layers, said conducting ridge thereby forming said waveguiding paths;
A method for establishing a trust relationship in an ultra dense network performed by a user equipment, the method comprising: • receiving a reconfiguration request from a macrocell, wherein a first base station serves for covering the macrocell (step 510); • deriving a user plane encryption key according to information in the reconfiguration request (step 520); • transmitting a first user plane signaling message to a first microcell in a group of microcells when the UE is attached to the first microcell (step 530), wherein, for each microcell among the microcells of the group of microcells, a different second base station serves for covering the microcell, and wherein each second base station is different to the first base station; and • transmitting a second user plane signaling message to a second microcell in the group of microcells when the UE is attached to the second microcell, wherein the first user plane signaling message and the second user plane signaling message are both encrypted according to the user plane encryption key (step 540). • receiving a reconfiguration request from a macrocell, wherein a first base station serves for covering the macrocell (step 510); • deriving a user plane encryption key according to information in the reconfiguration request (step 520); • transmitting a first user plane signaling message to a first microcell in a group of microcells when the UE is attached to the first microcell (step 530), wherein, for each microcell among the microcells of the group of microcells, a different second base station serves for covering the microcell, and wherein each second base station is different to the first base station; and • transmitting a second user plane signaling message to a second microcell in the group of microcells when the UE is attached to the second microcell, wherein the first user plane signaling message and the second user plane signaling message are both encrypted according to the user plane encryption key (step 540).
Knife having a casing (H, 11, 12) and a blade-carrier, wherein said blade-carrier is mounted on the casing (H, 11, 12) so as to be movable in translation and movable in rotation, having an actuating device comprising at least one actuating element and at least one handle, wherein said actuating device (V, 14) interacts with the blade-carrier so as to be articulated in a pivoting manner and wherein, with the aid of the actuating device, the blade-carrier can be displaced from at least one safety position, in which a blade held on said blade-carrier is retracted into a receiving space in the casing (H, 11, 12), into at least one cutting position in which the blade projects out of said casing (H, 11, 12), characterised in that the actuating element is fixedly connected to the blade-carrier by means of a pivot joint.
System for detecting the position of an object with the aid of a passive component termed "marker" and an active component termed "sensor" which is provided with a power supply and an electronic circuit, where the marker and the sensor can be moved in relation to one another, where one component is fixed to the object, which then moves with the object, and one component remains stationary, and where, when the distance falls below a given so-called detecting distance, the sensor automatically detects the presence of the marker and generates a detecting signal, where the marker is arranged immovably and the sensor moves together with the object, where the electronic circuit of the sensor has a time setting and the time of the detecting signal is automatically recorded, and where the marker is designed as a magnet and the sensor as a magnetic sensor, characterised in that the marker is designed as a magnetic compound dipole, i.e. as an arrangement with an extension yoke at both of whose ends at least one magnet is arranged, in such a way that an extended overall magnetic dipole is formed with two unidirectionally aligned magnets arranged in series, where the marker has an extension yoke consisting of a ferromagnetic material and is at least two centimetres in length, and where a magnet is arranged at each end of the extension yoke.
An anti-vibration device for sound equipment, wherein the anti-vibration device comprises an elastic stress frame, the elastic stress frame having a stress deformation portion and a plurality of support portions, the support portions protruding toward one side with respect to the stress deformation portion, and wherein the material of the elastic stress frame is one selected from polymethylmethacrylate, polyacrylic acid, polyacrylate, polycarbonate, polystyrene, PE, PP, PET, PBT and ABS.
A blade for a wind power generation apparatus comprising: a structural member made of a conductive material inserted and attached therein; and characterised by a first electrode made of a conductive material formed on a surface of the blade, wherein the structural member is electrically insulated from the first electrode and formed into a second electrode earthed to ground. a structural member made of a conductive material inserted and attached therein; and characterised by a first electrode made of a conductive material formed on a surface of the blade, wherein the structural member is electrically insulated from the first electrode and formed into a second electrode earthed to ground.