mhurhangee/ep-ind-claims huggingface dataset:
A drive unit for a revolving door with an electronically commutated multi-pol motor, including a disc-shaped or pot-shaped stator part, which can be disposed at a static structural component of the revolving door, and including a disc-shaped or pot shaped rotor part, which is gearlessly connectable to a turnstile of the revolving door, wherein the stator part and the rotor part have a plane-parallel arrangement with regard to each other, and wherein an engagement device is disposed between the stator part and the rotor part for engaging in the rotary movement of the rotor part at the stator part, characterized in that the engagement device is embodied as a blocking device for blocking the rotary movement of the rotor part at the stator part, wherein the blocking device is statically disposed at the stator part and is embodied for positive engagement in the rotor part, and the blocking device includes an actuator and a blocking element, which the actuator can positively bring into a reception opening in the rotor part, wherein the rotor part includes an engagement disc, wherein the engagement disc includes one and preferably a number of reception openings, into which the blocking element engages during a lifting movement.
A method of forming a device with a controlled electrode gap width between a movable member and a Z-axis electrode, comprising: providing a substrate; forming a functional layer from which a movable member will be formed on top of a surface of the substrate; forming a sacrificial layer above the functional layer; exposing a first portion of a top surface of the functional layer through the sacrificial layer where said movable member will be formed; forming a first spacer layer on the exposed first portion of the functional layer; forming a first encapsulation layer above the first spacer layer; vapor etching the encapsulated first spacer layer to form a first gap between the functional layer and the first encapsulation layer; then forming a second encapsulation layer on the first encapsulation layer; and defining the Z-axis electrode in the first and second encapsulation layers (220, 236) at a location immediately above the exposed first portion of the top surface of the functional layer and spaced apart from the exposed first portion of the top surface of the functional layer by the first gap having said controlled electrode gap width. providing a substrate; forming a functional layer from which a movable member will be formed on top of a surface of the substrate; forming a sacrificial layer above the functional layer; exposing a first portion of a top surface of the functional layer through the sacrificial layer where said movable member will be formed; forming a first spacer layer on the exposed first portion of the functional layer; forming a first encapsulation layer above the first spacer layer; vapor etching the encapsulated first spacer layer to form a first gap between the functional layer and the first encapsulation layer; then forming a second encapsulation layer on the first encapsulation layer; and defining the Z-axis electrode in the first and second encapsulation layers (220, 236) at a location immediately above the exposed first portion of the top surface of the functional layer and spaced apart from the exposed first portion of the top surface of the functional layer by the first gap having said controlled electrode gap width.
Use of a sperm activator whose active ingredient is a disrupted product of one or more cells selected from the group consisting of adipose tissue-derived stem cells, dental pulp derived stem cells, bone marrow-derived stem cells, and umbilical cord blood-derived stem cells or any combination thereof for activating sperm, wherein the disrupted product is selected from any one of the following (a) to (d): (a) disrupted cells obtained by thawing cells in a frozen state; (b) a disrupted suspension obtained by disrupting cells; (c) a supernatant obtained by centrifuging the disrupted suspension (b); and (d) filtrate obtained by filtering the disrupted suspension (b) or the supernatant (c); and wherein activating sperm comprises increasing sperm motility, and wherein the use is performed in vitro. (a) disrupted cells obtained by thawing cells in a frozen state; (b) a disrupted suspension obtained by disrupting cells; (c) a supernatant obtained by centrifuging the disrupted suspension (b); and (d) filtrate obtained by filtering the disrupted suspension (b) or the supernatant (c); and wherein activating sperm comprises increasing sperm motility, and wherein the use is performed in vitro.
Filter assembly for filtering a blood comprising a filter system and a filter holder, - wherein the filter system and the filter holder are in contact with each other, - wherein the filter system consists of at least two layers, - wherein the first layer is a defoaming layer made of a monofilament woven open mesh fabric and with an embossed three-dimensional structure configured for entrapping foam built up in the blood, • wherein said defoaming layer includes pores distributed in a nonplanar arrangement; - wherein the second layer is a mesh filter layer, and - wherein the mesh filter layer is arranged downstream of the defoaming layer. - wherein the filter system and the filter holder are in contact with each other, - wherein the filter system consists of at least two layers, - wherein the first layer is a defoaming layer made of a monofilament woven open mesh fabric and with an embossed three-dimensional structure configured for entrapping foam built up in the blood, • wherein said defoaming layer includes pores distributed in a nonplanar arrangement; - wherein the second layer is a mesh filter layer, and - wherein the mesh filter layer is arranged downstream of the defoaming layer. - wherein the first layer is a defoaming layer made of a monofilament woven open mesh fabric and with an embossed three-dimensional structure configured for entrapping foam built up in the blood, • wherein said defoaming layer includes pores distributed in a nonplanar arrangement; • wherein said defoaming layer includes pores distributed in a nonplanar arrangement; - wherein the second layer is a mesh filter layer, and - wherein the mesh filter layer is arranged downstream of the defoaming layer.
A method for determining the suitability of a dispensing apparatus for a heat-dissipating material, comprising steps of: detecting an internal material of a dispensing apparatus from a heat-dissipating material discharged from the dispensing apparatus; and determining suitability of the dispensing apparatus based on the detected amount of the internal material, characterized in that the internal material comprises iron (Fe), in that if the iron is detected below 30 mg/kg, the dispensing apparatus is determined to be suitable, and in that the internal material is detected using an ICP analysis method as described in the description. comprising steps of: detecting an internal material of a dispensing apparatus from a heat-dissipating material discharged from the dispensing apparatus; and determining suitability of the dispensing apparatus based on the detected amount of the internal material, characterized in that the internal material comprises iron (Fe), in that if the iron is detected below 30 mg/kg, the dispensing apparatus is determined to be suitable, and in that the internal material is detected using an ICP analysis method as described in the description.
Assembly of a first plate-shaped construction element and a second plate-shaped construction element which, parallel next to each other, form a horizontal floor or ceiling of a building, wherein a first pipe has been accommodated in the first construction element and a second pipe has been accommodated in the second construction element, which pipes are coupled to each other by means of an insert coupling connecting the first pipe and the second pipe, wherein the first construction element comprises a first head surface and a first recess adjacent thereto and the second construction element comprises a second head surface extending parallel to the first head surface, wherein the first recess defines an installation space for the insert coupling where the first pipe and the second pipe are ending, wherein the insert coupling (70, 70') can be converted from a first position or condition in which it can be placed in the installation space, to a second position or condition in which it engages onto the first pipe and the second pipe, said assembly being characterized in that the insert coupling comprises a first slider pipe and a second slider pipe between the parts that engage onto the first pipe or second pipe, which slider pipes (71, 75) are telescopically inserted into each other, wherein the insert coupling can be converted between the first position and the second position by shifting the slider pipes relative to each other.
A silencer for firearms comprising an attachment part and a muzzle part, where at least one intermediate module element is arranged between said attachment part and muzzle part, characterized in that each of said attachment part, at least one intermediate module element and muzzle part comprises an outer sleeve portion (2A, 3A, 4A) which outer sleeve portion (2A, 3A, 4A) form a part of an outer surface of the silencer, said muzzle part and at least one intermediate module element and attachment part further comprises an inner sleeve portion (3B, 4B) and a core portion (2C, 3C), the space between the core portion and the inner sleeve portion defining at least one cavity for expanded exhaust gas, which inner sleeve portion (3B,4B) forms a part of an inner surface of the silencer, said core portion (2C,3C) comprising a throughgoing bore and at least one opening connecting the bore with the cavity, said outer sleeve portion and inner sleeve portion of module element being connected through a radial part, said attachment part and radial part being provided with a plurality of axial throughgoing openings (2F, 3F) around their periphery, wherein, when the silencer is assembled, the space between said outer sleeve portion (2A, 3A, 4A) and inner sleeve portion (3B, 4B) form a volume defining a first passage for exhaust gases via openings and, and said inner sleeve portion (3B, 4B) and core portion (2C,3C) form a volume defining a second passage for exhaust gases and wherein the muzzle part comprises a radial part provided with a plurality of axial throughgoing openings around a periphery of said radial part, the opening in communication with the first passage.
A reflective mask blank comprising a substrate on which a reflective layer for reflecting exposure light in a short-wavelength region including an extreme ultraviolet region and an absorber layer for absorbing the exposure light are successively formed, the absorber layer having an at least two-layer structure including as a lower layer an exposure light absorbing layer comprising an absorber for the exposure light and as an upper layer a low-reflectivity layer comprising an absorber for inspection light used in inspection of a mask pattern, the upper layer being farther from the substrate than the lower layer, characterized in that the upper layer is made of a material containing tantalum (Ta), boron, nitrogen, and oxygen, a content of B being 5 at% to 25 at%, a ratio of Ta and N+O (Ta: N+O) falling within a range of 7: 2 to 2: 7, a contrast between reflected light reflected on a surface of the reflective layer and reflected light reflected on a surface of the absorber layer being 40 % or more at the wavelength of light of 257 nm.
A bispecific antibody specifically binding to HER2 comprising a first Fab capable of specific binding to extracellular domain II of HER2 and a second Fab capable of specific binding to extracellular domain IV of HER2, wherein the sequence of the variable light chain of the first Fab molecule is identical to the sequence of the variable light chain of the second Fab molecule, wherein the bispecific antibody is monovalent for both the extracellular domain II and IV of HER2, wherein the bispecific antibody comprises (a) a first heavy chain comprising a heavy chain CDR1 of SEQ ID NO: 55; a heavy chain CDR 2 of SEQ ID NO: 77; and a heavy chain CDR 3 of SEQ ID NO: 56, (b) a second heavy chain comprising a heavy chain CDR1 of SEQ ID NO: 20; a heavy chain CDR2 of SEQ ID NO: 29; and a heavy chain CDR3 of SEQ ID NO: 30, and (c) a first and a second light chain comprising a light chain CDR1 of SEQ ID NO: 89; a light chain CDR2 of SEQ ID NO: 90; and a light chain CDR3 of SEQ ID NO: 19. (a) a first heavy chain comprising a heavy chain CDR1 of SEQ ID NO: 55; a heavy chain CDR 2 of SEQ ID NO: 77; and a heavy chain CDR 3 of SEQ ID NO: 56, (b) a second heavy chain comprising a heavy chain CDR1 of SEQ ID NO: 20; a heavy chain CDR2 of SEQ ID NO: 29; and a heavy chain CDR3 of SEQ ID NO: 30, and (c) a first and a second light chain comprising a light chain CDR1 of SEQ ID NO: 89; a light chain CDR2 of SEQ ID NO: 90; and a light chain CDR3 of SEQ ID NO: 19.
A method of distributing music to a plurality of customers via the Internet, comprising: - providing each customer with a uniquely identified proprietary device for receiving, playing and recording music, wherein the proprietary device functions as record/play unit; - providing a music server computer system for distributing the music to the proprietary devices over the Internet;wherein the music server computer system comprises an authorized units database containing information regarding the proprietary devices that are authorized to receive music and - wherein the information in the authorized units database is reviewed to identify the proprietary devices authorized to receive music from the music database and - transmit music only to authorized proprietary devices listed in the authorized units database using the Internet communication system and - tracking usage of the music on the proprietary devices and reporting usage data over the Internet to the music server computer system - labeling music to be downloaded to the particular device with information uniquely identifying the particular device. - providing each customer with a uniquely identified proprietary device for receiving, playing and recording music, wherein the proprietary device functions as record/play unit; - providing a music server computer system for distributing the music to the proprietary devices over the Internet;wherein the music server computer system comprises an authorized units database containing information regarding the proprietary devices that are authorized to receive music and - wherein the information in the authorized units database is reviewed to identify the proprietary devices authorized to receive music from the music database and - transmit music only to authorized proprietary devices listed in the authorized units database using the Internet communication system and - tracking usage of the music on the proprietary devices and reporting usage data over the Internet to the music server computer system - labeling music to be downloaded to the particular device with information uniquely identifying the particular device.
A rotor bearing housing for a wind turbine, comprising: - a bearing body for receiving a rotor shaft of the wind turbine rotating about an axis of rotation, the bearing body comprising a first receptacle for a first rotor bearing at a first end and a second receptacle for a second rotor bearing at a second end opposite along an axis direction, the bearing body extending longitudinally along the axis direction, - a support body arranged below the bearing body and designed to be coupled to a base member at a first end for transmitting a flux of force between the bearing body and the base member, the base member being able to be arranged below the support body for rotatably fastening to a first end of a tower of the wind turbine, wherein the bearing body and the support body together form a one-piece body, and wherein the bearing body and the support body are designed such that when a geometric center of the first receptacle is projected onto a cross-sectional plane of the first end of the tower, the geometric center is arranged outside a diameter of the tower at the first end, characterized in that the support body has a circularly symmetric shape at the first end connectable to the base member and has an elliptical basic shape at cross-sections above the first end and parallel to the base member. - a bearing body for receiving a rotor shaft of the wind turbine rotating about an axis of rotation, the bearing body comprising a first receptacle for a first rotor bearing at a first end and a second receptacle for a second rotor bearing at a second end opposite along an axis direction, the bearing body extending longitudinally along the axis direction, - a support body arranged below the bearing body and designed to be coupled to a base member at a first end for transmitting a flux of force between the bearing body and the base member, the base member being able to be arranged below the support body for rotatably fastening to a first end of a tower of the wind turbine,
A dental instrument, comprising a rigid, elongate rod having: a handle portion; and at least one working portion (16a,16b), the at least one working portion (16a,16b) having a distal tip (18a,18b) opposite the handle portion, the at least one working portion (16a,16b) having a generally elliptical cross section defining a major axis and a shallow channel (22a,22b) formed along the working portion (16a,16b) and extending to the tip (18a,18b), the channel (22a,22b) being defined by mutually opposed, coplanar channel edges (24a,26a; 24b, 26b) coincident with the major axis of the elliptical cross section; characterised in that: the tip (18a,18b) has a notched and sharpened edge (28a,28b); and one of the channel edges includes a sharpened notch (34a,34b) therein. a handle portion; and at least one working portion (16a,16b), the at least one working portion (16a,16b) having a distal tip (18a,18b) opposite the handle portion, the at least one working portion (16a,16b) having a generally elliptical cross section defining a major axis and a shallow channel (22a,22b) formed along the working portion (16a,16b) and extending to the tip (18a,18b), the channel (22a,22b) being defined by mutually opposed, coplanar channel edges (24a,26a; 24b, 26b) coincident with the major axis of the elliptical cross section; characterised in that: the tip (18a,18b) has a notched and sharpened edge (28a,28b); and one of the channel edges includes a sharpened notch (34a,34b) therein. the tip (18a,18b) has a notched and sharpened edge (28a,28b); and one of the channel edges includes a sharpened notch (34a,34b) therein.
A method of manufacturing fine metal particles, the fine metal particles comprising fine metal particles supported on a carrier and covered by a noble metal skin layer, the average particle diameter of the fine metal particles being 2 to 12 nm obtained by measuring diameters of the circumscribed circles for fine particles in a TEM image, and then calculating the average of the diameters; the method comprising the steps of: a reaction solution step comprising preparing a reaction solution by allowing seeds of fine metal particles supported on a carrier in a dispersed state and a water-soluble noble metal precursor to co-exist in a water-containing solvent, wherein the noble metal precursor is selected from the group consisting of an acid of platinum, a salt of platinum, and a complex of platinum; and a hydrogen bubbling step comprising performing bubbling to the reaction solution, wherein the bubbling is performed with a reaction gas containing a hydrogen gas, and wherein the fine metal particles are obtained by allowing formation of a platinum skin layer so as to cover the seeds of fine metal particles, wherein the seeds of fine metal particles are an alloy of a noble metal and a non-noble metal, the noble metal of the seeds of fine metal particles comprises at least one metal selected from the group consisting of platinum, palladium, rhodium, iridium, ruthenium, and gold; and the non-noble metal of the seeds of fine metal particles comprises at least one metal selected from the group consisting of iron, cobalt, nickel, manganese, chromium, vanadium, titanium, niobium, molybdenum, lead, and tungsten. a reaction solution step comprising preparing a reaction solution by allowing seeds of fine metal particles supported on a carrier in a dispersed state and a water-soluble noble metal precursor to co-exist in a water-containing solvent, wherein the noble metal precursor is selected from the group consisting of an acid of platinum, a salt of platinum, and a complex of platinum; and a hydrogen bubbling step comprising performing bubbling to the reaction solution, wherein the bubbling is performed with a reaction gas containing a hydrogen gas, and wherein the fine metal particles are obtained by allowing formation of a platinum skin layer so as to cover the seeds of fine metal particles, wherein the seeds of fine metal particles are an alloy of a noble metal and a non-noble metal, the noble metal of the seeds of fine metal particles comprises at least one metal selected from the group consisting of platinum, palladium, rhodium, iridium, ruthenium, and gold; and the non-noble metal of the seeds of fine metal particles comprises at least one metal selected from the group consisting of iron, cobalt, nickel, manganese, chromium, vanadium, titanium, niobium, molybdenum, lead, and tungsten.
Radiation emitting electronic device comprising: - a substrate, - a radiation emitting functional area (10A, 10B, 15) on the substrate characterized by furthermore comprising: - a radiation out-coupling material comprising polysilsesquioxane and inorganic nanoparticles arranged in the optical path of the radiation emitting functional area (10A, 10B, 15), - wherein the functional area (10A, 10B, 15) comprises a stack of a first electrode, at least one organic functional layer on the first electrode and a second electrode on the at least one organic functional layer, - wherein the radiation out-coupling material is arranged directly on at least one of the first and second electrodes. - a substrate, - a radiation emitting functional area (10A, 10B, 15) on the substrate - a radiation out-coupling material comprising polysilsesquioxane and inorganic nanoparticles arranged in the optical path of the radiation emitting functional area (10A, 10B, 15), - wherein the functional area (10A, 10B, 15) comprises a stack of a first electrode, at least one organic functional layer on the first electrode and a second electrode on the at least one organic functional layer, - wherein the radiation out-coupling material is arranged directly on at least one of the first and second electrodes.