mhurhangee/ep-ind-claims huggingface dataset:
Electrical discharge aerosol charger comprising: - a body (2, 2', 2"); - an ion source comprising two electrodes (31, 32, 32', 32"); - the body (2, 2', 2") and at least a first electrode (32, 32', 32") of the ion source being aligned on a same longitudinal axis of symmetry (AA') of the charger, the body (2, 2', 2") surrounding the first electrode (32, 32', 32") so as to define an aerosol flow area as a space defined between the body (2, 2', 2") and the first electrode (32, 32', 32"); - the first electrode (32, 32', 32") comprising a hole (321, 321', 231") in communication with the aerosol (Ae) flow area, the hole (321, 321', 231") being designed to let ions formed at the ion source pass so that they mix with an aerosol (Ae) flowing in the aerosol (Ae) flow area; the charger being characterized in that the aerosol flow area is symmetrical with respect to the ion source. - a body (2, 2', 2"); - an ion source comprising two electrodes (31, 32, 32', 32"); - the body (2, 2', 2") and at least a first electrode (32, 32', 32") of the ion source being aligned on a same longitudinal axis of symmetry (AA') of the charger, the body (2, 2', 2") surrounding the first electrode (32, 32', 32") so as to define an aerosol flow area as a space defined between the body (2, 2', 2") and the first electrode (32, 32', 32"); - the first electrode (32, 32', 32") comprising a hole (321, 321', 231") in communication with the aerosol (Ae) flow area, the hole (321, 321', 231") being designed to let ions formed at the ion source pass so that they mix with an aerosol (Ae) flowing in the aerosol (Ae) flow area;
Method for forming a three-dimensional article through successive fusion of parts of a powder bed, which parts corresponds to successive cross sections of the three-dimensional article, the method comprising the steps of: applying a model of the three dimensional article; applying a first powder layer on a work table; directing a first electron beam from a first electron beam source over the work table causing the first powder layer to fuse in first selected locations according to the model to form a first part of a first cross section of the three-dimensional article; directing a second electron beam from a second electron beam source over the work table causing the first powder layer to fuse in second selected locations according to the model to form a second part of the first cross section of the three-dimensional article; registering at least one setting of the first electron beam source; registering at least one setting of the second electron beam source; and correcting the position of the second electron beam depending on the at least one setting of the first electron beam source and the at least one setting of the second electron beam source for aligning a desired second electron beam position according to the model with a real second electron beam position, wherein the electron beam source settings comprises at least one of: a coil current in at least one beam source coil for at least one of deflecting or shaping at least one of the electron beam or the beam power, an electrostatic lens for at least one of deflecting or shaping the electron beam, or an electrostatic plate for at least one of deflecting or shaping the electron beam. applying a model of the three dimensional article; applying a first powder layer on a work table; directing a first electron beam from a first electron beam source over the work table causing the first powder layer to fuse in first selected locations according to the model to form a first part of a first cross section of the three-dimensional article; directing a second electron beam from a second electron beam source over the work table causing the first powder layer to fuse in second selected locations according to the model to form a second part of the first cross section of the three-dimensional article; registering at least one setting of the first electron beam source; registering at least one setting of the second electron beam source; and correcting the position of the second electron beam depending on the at least one setting of the first electron beam source and the at least one setting of the second electron beam source for aligning a desired second electron beam position according to the model with a real second electron beam position, wherein the electron beam source settings comprises at least one of: a coil current in at least one beam source coil for at least one of deflecting or shaping at least one of the electron beam or the beam power, an electrostatic lens for at least one of deflecting or shaping the electron beam, or an electrostatic plate for at least one of deflecting or shaping the electron beam.
An apparatus for controlling a flow of coolant into an inter-stage cavity of a turbomachine, the inter-stage cavity bounded by a disc of a first turbine stage and a disc of a second turbine stage axially displaced along a common axis of rotation (A-A) with the first turbine stage, the apparatus comprising an annular platform bridging a space between the axially displaced first and second turbine stages, an annular plenum chamber arranged inboard of the annular platform, the annular plenum chamber having one or more inlets for receiving coolant and one or more outlets (44, 84) exiting into the inter-stage cavity, the outlets having a reduced total cross-sectional area compared with a total cross sectional area of the inlets and whereby, in use, coolant is delivered into the inter-stage cavity with minimal pressure losses, and wherein the apparatus further comprises an inter-stage seal assembly which is arranged immediately axially downstream of the annular plenum chamber, with respect to the flow of a working fluid through the turbomachine when in use, the inter-stage seal assembly is slidably connected to an axially downstream radially extending wall of the annular plenum chamber, and the apparatus further comprises a second seal assembly (36, 39, 46) which is arranged immediately axially upstream of the annular plenum chamber, such that the annular plenum chamber occupies a space axially between the inter-stage sea assembly and the second seal assembly (36, 39, 46) and extends radially into the inter-stage cavity.
A light emitting element with a hexagonal planar shape, comprising: an n-side semiconductor layer; a p-side semiconductor layer provided on the n-side semiconductor layer; a plurality of holes that are provided to an area excluding either (i) at least three corners of the p-side semiconductor layer in plan view, or (ii) at least two corners at the farthest positions of the p-side semiconductor layer in plan view, and expose the n-side semiconductor layer; a first p-electrode provided in contact with the p-side semiconductor layer; second p-electrodes provided either (i) to said at least three corners, or (ii) to said at least two corners on the first p-electrode, respectively; and an n-electrode that is provided on the first p-electrode and is electrically connected to the n-side semiconductor layer through the plurality of holes. an n-side semiconductor layer; a p-side semiconductor layer provided on the n-side semiconductor layer; a plurality of holes that are provided to an area excluding either (i) at least three corners of the p-side semiconductor layer in plan view, or (ii) at least two corners at the farthest positions of the p-side semiconductor layer in plan view, and expose the n-side semiconductor layer; (i) at least three corners of the p-side semiconductor layer in plan view, or (ii) at least two corners at the farthest positions of the p-side semiconductor layer in plan view, a first p-electrode provided in contact with the p-side semiconductor layer; second p-electrodes provided either (i) to said at least three corners, or (ii) to said at least two corners on the first p-electrode, respectively; and an n-electrode that is provided on the first p-electrode and is electrically connected to the n-side semiconductor layer through the plurality of holes.
An article of footwear, intended for use as a dance shoe, comprising: an upper and an outsole; the upper including a forefoot region, a middle region, and a heel region; the upper having a length LH extending from the tip of the forefoot region to the tip of the heel region; the upper including a ribbon configured to wrap around a portion of the foot; the upper including an opening; the opening including an outer periphery, the outer periphery being continuous from the forward region to the rear region; the opening having an opening length LO, the opening length extending from a forward tip of the outer periphery to a rear tip of the outer periphery; the ratio of LO/LH being between 0.7 and 0.8; and wherein the upper includes a fastener system, the fastener system including a first C-shaped medial side strap and a second C-shaped lateral side strap. an upper and an outsole; the upper including a forefoot region, a middle region, and a heel region; the upper having a length LH extending from the tip of the forefoot region to the tip of the heel region; the upper including a ribbon configured to wrap around a portion of the foot; the upper including an opening; the opening including an outer periphery, the outer periphery being continuous from the forward region to the rear region; the opening having an opening length LO, the opening length extending from a forward tip of the outer periphery to a rear tip of the outer periphery; the ratio of LO/LH being between 0.7 and 0.8; and wherein the upper includes a fastener system, the fastener system including a first C-shaped medial side strap and a second C-shaped lateral side strap.
A flow distribution module for distributing a flow of fluid over a surface to be cooled, said flow distribution module comprising: - a housing defining at least one flow cell, each flow cell having an inlet opening arranged to receive fluid to the flow cell and an outlet opening arranged to deliver fluid from the flow cell, the flow cell(s) being positioned in such a way that a flow of fluid flowing through a flow cell from the inlet opening to the outlet opening is conveyed over the surface to be cooled, each flow cell being formed to cause at least one change in the direction of flow of the fluid flowing through the flow cell, thereby forcing fluid towards the surface to be cooled, - a cover plate arranged adjacent to the flow cell(s), said cover plate defining the surface to be cooled, wherein at least a part of the surface to be cooled defined by the cover plate is provided with a surface pattern of raised and depressed surface portions, thereby providing an enlarged surface area of the surface to be cooled, said surface pattern defining a sub-pattern which is repeated along two or more directions of the surface pattern, and characterized in that the raised surface portions and the depressed surface portions having the same shape. - a housing defining at least one flow cell, each flow cell having an inlet opening arranged to receive fluid to the flow cell and an outlet opening arranged to deliver fluid from the flow cell, the flow cell(s) being positioned in such a way that a flow of fluid flowing through a flow cell from the inlet opening to the outlet opening is conveyed over the surface to be cooled, each flow cell being formed to cause at least one change in the direction of flow of the fluid flowing through the flow cell, thereby forcing fluid towards the surface to be cooled, - a cover plate arranged adjacent to the flow cell(s), said cover plate defining the surface to be cooled, wherein
An in-wheel motor drive device, which is configured to be accommodated inside a wheel housing, the in-wheel motor drive device comprising: an electric motor section; a wheel bearing section; and a speed reducer section, which is formed of a parallel shaft gear mechanism comprising an input shaft, an intermediate shaft, and an output shaft, and is configured to transmit output torque of the electric motor section, which is input to the input shaft, to the wheel bearing section via the intermediate shaft and the output shaft, the intermediate shaft comprising a large gear and a small gear, the output shaft comprising a final output gear configured to mesh with the small gear of the intermediate shaft, the output shaft being supported on its in-board side and out-board side by bearings (48, 49), respectively, wherein the large gear of the intermediate shaft is arranged between the bearing configured to support the output shaft on the in-board side and the final output gear of the output shaft, and wherein, when viewed from the axial direction, a tooth top circle of the large gear of the intermediate shaft and a radially outer circle of the bearing configured to support the output shaft on the in-board side have an intersection point, characterized in that a center of the input shaft, a center of the intermediate shaft, and a center of the wheel bearing section each are arranged so that lines connecting the centers (O1, O2, O3) form a triangle. an electric motor section; a wheel bearing section; and a speed reducer section, which is formed of a parallel shaft gear mechanism comprising an input shaft, an intermediate shaft, and an output shaft, and is configured to transmit output torque of the electric motor section, which is input to the input shaft, to the wheel bearing section via the intermediate shaft and the output shaft, the intermediate shaft comprising a large gear and a small gear, the output shaft comprising a final output gear configured to mesh with the small gear of the intermediate shaft, the output shaft being supported on its in-board side and out-board side by bearings (48, 49), respectively, wherein the large gear of the intermediate shaft is arranged between the bearing configured to support the output shaft on the in-board side and the final output gear of the output shaft, and wherein, when viewed from the axial direction, a tooth top circle of the large gear of the intermediate shaft and a radially outer circle of the bearing configured to support the output shaft on the in-board side have an intersection point,
A monolithic, three dimensional NAND string, comprising a first memory cell located over a second memory cell, wherein: a semiconductor active region of the first memory cell comprises a first pillar having a square or rectangular cross section when viewed from above, the first pillar comprising a first conductivity type semiconductor region located between second conductivity type semiconductor regions (213, 217); a semiconductor active region of the second memory cell comprises a second pillar having a square or rectangular cross section when viewed from above, the second pillar located under the first pillar, the second pillar comprising a first conductivity type semiconductor region located between second conductivity type semiconductor regions (113, 117); and one second conductivity type semiconductor region in the first pillar contacts one second conductivity type semiconductor region in the second pillar CHARACTERISED BY: a first word line connected to the first memory cell; a second word line connected to the second memory cell; wherein the first word line extends in a first direction and the second word line extends in a second direction different from the first direction such that the first and second word lines connect with charge storage regions in the first and second memory cells at locations adjacent to different faces of the first and second pillars. a semiconductor active region of the first memory cell comprises a first pillar having a square or rectangular cross section when viewed from above, the first pillar comprising a first conductivity type semiconductor region located between second conductivity type semiconductor regions (213, 217); a semiconductor active region of the second memory cell comprises a second pillar having a square or rectangular cross section when viewed from above, the second pillar located under the first pillar, the second pillar comprising a first conductivity type semiconductor region located between second conductivity type semiconductor regions (113, 117); and one second conductivity type semiconductor region in the first pillar contacts one second conductivity type semiconductor region in the second pillar a first word line connected to the first memory cell; a second word line connected to the second memory cell; wherein the first word line extends in a first direction and the second word line extends in a second direction different from the first direction such that the first and second word lines connect with charge storage regions in the first and second memory cells at locations adjacent to different faces of the first and second pillars.
A dehumidifier, comprising a main body and a front panel, a compressor is arranged in said main body, and is positioned at a bottom of said main body, said front panel is arranged on an outside of said main body; wherein, a lower seal panel for shielding said compressor is further included, said lower seal panel is disposed on said main body and positioned between said front panel and said compressor; characterized in that: at least one elastic member is disposed between said lower seal panel and said front panel; the elastic member is an elastic plastic part; the elastic plastic part is fixedly disposed on said lower seal panel and arranged at the lower end edge of the lower seal panel; a latching slot is disposed on the front panel at a position corresponding to a position of the elastic plastic part on the lower seal panel; and the elastic plastic part on the lower seal panel is installed in the latching slot on the front panel. wherein, a lower seal panel for shielding said compressor is further included, said lower seal panel is disposed on said main body and positioned between said front panel and said compressor; characterized in that: at least one elastic member is disposed between said lower seal panel and said front panel; the elastic member is an elastic plastic part; the elastic plastic part is fixedly disposed on said lower seal panel and arranged at the lower end edge of the lower seal panel; a latching slot is disposed on the front panel at a position corresponding to a position of the elastic plastic part on the lower seal panel; and the elastic plastic part on the lower seal panel is installed in the latching slot on the front panel. at least one elastic member is disposed between said lower seal panel and said front panel; the elastic member is an elastic plastic part; the elastic plastic part is fixedly disposed on said lower seal panel and arranged at the lower end edge of the lower seal panel; a latching slot is disposed on the front panel at a position corresponding to a position of the elastic plastic part on the lower seal panel; and the elastic plastic part on the lower seal panel is installed in the latching slot on the front panel.
A high speed cornet bending machine with high production capacity and mechanically independent motion control system, comprising at least one feeding magazine for sequentially transferring sheets to a conveying apparatus adapted to fed the sheets coming from the feeding magazine to a transfer line, feeder motors adapted to give the drive action to the feeder magazine, the transfer line adapted to transfer the sheets from the conveying apparatus to an end bending unit to be bent, wherein - said end bending unit is provided with an upper bending conical mold (8.1) for providing vacuum removal of the sheets from the transfer line and a lower bending conical mold (8.2) located under the upper bending conical mold (8.1), adapted to fold the sheets together with the upper bending conical mold (8.1), characterized in that: - said end bending unit includes at least one saw blade for cutting off the excess pieces on the sheets going from the transfer line to the end bending unit. - said end bending unit is provided with an upper bending conical mold (8.1) for providing vacuum removal of the sheets from the transfer line and a lower bending conical mold (8.2) located under the upper bending conical mold (8.1), adapted to fold the sheets together with the upper bending conical mold (8.1), characterized in that: - said end bending unit includes at least one saw blade for cutting off the excess pieces on the sheets going from the transfer line to the end bending unit.
A method for producing a monomeric Fc-region containing polypeptide comprising the steps a) applying a solution comprising the Fc-region containing polypeptide in monomeric form and in aggregated form, wherein the aggregated form is 20 % or more as determined by size exclusion chromatography of the total Fc-region containing polypeptide in the solution, to a mixed-mode chromatography material and recovering the Fc-region containing polypeptide from the mixed-mode chromatography material, and b) applying the solution obtained in the previous step to a weak cation exchange chromatography material and recovering the Fc-region containing polypeptide from the flow-through of the weak cation exchange chromatography material and thereby producing the monomeric Fc-region containing polypeptide. a) applying a solution comprising the Fc-region containing polypeptide in monomeric form and in aggregated form, wherein the aggregated form is 20 % or more as determined by size exclusion chromatography of the total Fc-region containing polypeptide in the solution, to a mixed-mode chromatography material and recovering the Fc-region containing polypeptide from the mixed-mode chromatography material, and b) applying the solution obtained in the previous step to a weak cation exchange chromatography material and recovering the Fc-region containing polypeptide from the flow-through of the weak cation exchange chromatography material and thereby producing the monomeric Fc-region containing polypeptide.
Arrangement for regulating voltage changes in a medium-voltage power supply system comprising an input transformer, which has a primary coil, which is able to be electrically coupled to a phase of the medium-voltage power supply system, and a secondary coil having at least two secondary-coil-side taps (5.1, 5.2, 5.3), an additional transformer, which has a secondary coil, which is connected in series with the at least one phase (P 1, 2, 3), and a primary coil, which is able to be connected alternately to the at least two secondary-side taps (5.1, 5.2, 5.3) by means of a tap changer for coupling an additional voltage provided by the input transformer into the phase (P 1, 2, 3), a control device for actuating the tap changer and also a holding space, in which the input transformer, the additional transformer and also the tap changer and the control device are held, characterized in that the primary and secondary coil (2a, 2b) of the input transformer, the primary and secondary coil (4a, 4b) of the additional transformer and the tap changer are held in a first spatial area of the holding space in an oil transformer tank, and in that the control device is arranged in a second spatial area of the holding space, said second spatial area being separated from the first spatial area by way of a partition wall.