mhurhangee/ep-ind-claims huggingface dataset:
A portal-shaped tear processing device comprising: a portal-shaped frame having two column members erected at predetermined intervals and a single beam member mounted and fixed on upper end surfaces of the two column members; a rail member provided on the beam member; a controlled movement robot capable of reciprocating on the rail member; and a tear processing means provided in the controlled movement robot, characterized in that the column member and the beam member have an outer shell portion (12, 22), a filler portion (14, 24) enclosed in the outer shell portion (12, 22), and a hollow portion (16, 26) boring the filling portion (14, 24) along a major axis direction of the column member and the beam member, wherein the column member and the beam member have a plurality of hollow portions (16, 26), wherein the outer shell portion (12, 22) is made of a steel pipe and the filling portion is made of a mortar material, and wherein a ratio of an area of the filling portion to an area of the hollow portion in the cross-section of the column member and the beam member is set to a value within the range of 85: 15 to 65: 35. a portal-shaped frame having two column members erected at predetermined intervals and a single beam member mounted and fixed on upper end surfaces of the two column members; a rail member provided on the beam member; a controlled movement robot capable of reciprocating on the rail member; and a tear processing means provided in the controlled movement robot, characterized in that the column member and the beam member have an outer shell portion (12, 22), a filler portion (14, 24) enclosed in the outer shell portion (12, 22), and a hollow portion (16, 26) boring the filling portion (14, 24) along a major axis direction of the column member and the beam member, wherein the column member and the beam member have a plurality of hollow portions (16, 26), wherein the outer shell portion (12, 22) is made of a steel pipe and the filling portion is made of a mortar material, and wherein a ratio of an area of the filling portion to an area of the hollow portion in the cross-section of the column member and the beam member is set to a value within the range of 85: 15 to 65: 35.
A mobile terminal comprising: a body having at least one partial region including a flexible material; a flexible display configured to display information; a sensor unit comprising a plurality of pressure sensors configured to detect a pressure generated from a first physical bending of the flexible display and from a second physical bending of the flexible display; and a controller configured to recognize a pressure distribution of the flexible display according to the first physical bending of the flexible display, determine a first curved portion caused by the first physical bending of the flexible display, and display a first reference line passing through the first curved portion on the flexible display, wherein the controller is further configured to determine a second curved portion caused by the second physical bending of the flexible display, to display a second reference line passing through the second curved portion on the flexible display, to activate visual information (P1-P4) partitioned by the first and second reference lines (B3, B4), respectively, and to select at least one of the partitioned visual information (P1-P4) of the visual information based on a subsequent physical bending of the flexible display. a body having at least one partial region including a flexible material; a flexible display configured to display information; a sensor unit comprising a plurality of pressure sensors configured to detect a pressure generated from a first physical bending of the flexible display and from a second physical bending of the flexible display; and a controller configured to recognize a pressure distribution of the flexible display according to the first physical bending of the flexible display, determine a first curved portion caused by the first physical bending of the flexible display, and display a first reference line passing through the first curved portion on the flexible display, wherein the controller is further configured to determine a second curved portion caused by the second physical bending of the flexible display, to display a second reference line passing through the second curved portion on the flexible display, to activate visual information (P1-P4) partitioned by the first and second reference lines (B3, B4), respectively, and to select at least one of the partitioned visual information (P1-P4) of the visual information based on a subsequent physical bending of the flexible display.
A method of upgrading a petroleum feedstock, the method comprising the steps of: introducing a disulfide oil, a water feed, and the petroleum feedstock to a supercritical water upgrading unit; and operating the supercritical water upgrading unit to produce a product gas stream, a product oil stream, and a used water stream. introducing a disulfide oil, a water feed, and the petroleum feedstock to a supercritical water upgrading unit; and operating the supercritical water upgrading unit to produce a product gas stream, a product oil stream, and a used water stream.
A signal transmitting method being applied to a stylus, and comprising: performing amplitude modulation respectively on n binary codes that represent information to be transmitted, so as to obtain n coded amplitude modulation signals which are sequentially arranged, wherein n is an integer greater than 1; the signal transmitting method being characterized by further comprising: continuously transmitting the n coded amplitude modulation signals which are sequentially arranged, wherein the coded amplitude modulation signals, sequence numbers of which are odd, are transmitted at a preset first frequency, and the coded amplitude modulation signals, sequence numbers of which are even, are transmitted at a preset second frequency. performing amplitude modulation respectively on n binary codes that represent information to be transmitted, so as to obtain n coded amplitude modulation signals which are sequentially arranged, wherein n is an integer greater than 1; the signal transmitting method being characterized by further comprising: continuously transmitting the n coded amplitude modulation signals which are sequentially arranged, wherein the coded amplitude modulation signals, sequence numbers of which are odd, are transmitted at a preset first frequency, and the coded amplitude modulation signals, sequence numbers of which are even, are transmitted at a preset second frequency.
A vapor delivery system, comprising: an elongate shaft configured to be inserted into a urethra of a patient; a vapor delivery needle comprising a plurality of vapor delivery ports, the vapor delivery needle being disposed within the elongate shaft and configured to be advanced generally transverse from the elongate shaft into a prostate of the patient when the elongate shaft is positioned within the urethra of the patient; a vapor generator coupled to the vapor delivery needle through vapor delivery ports of the vapor delivery needle to cause condensed liquid to exit vapor delivery ports of the vapor delivery needle; and an electronic controller operatively coupled to the vapor generator, the electronic controller being configured to: activate a flow of vapor from the vapor generator through the vapor delivery ports of the vapor delivery needle to cause condensed liquid to exit the vapor delivery ports of the vapor delivery needle; deliver a dose of vapor from the vapor generator through the vapor delivery ports of the vapor delivery needle into the prostate, characterised in that the electronic controller is further being configured to: after the dose of vapor is delivered, re-activate the flow of vapor from the vapor generator through the vapor delivery needle to prevent a vacuum from forming in the vapor delivery needle. an elongate shaft configured to be inserted into a urethra of a patient; a vapor delivery needle comprising a plurality of vapor delivery ports, the vapor delivery needle being disposed within the elongate shaft and configured to be advanced generally transverse from the elongate shaft into a prostate of the patient when the elongate shaft is positioned within the urethra of the patient; a vapor generator coupled to the vapor delivery needle through vapor delivery ports of the vapor delivery needle to cause condensed liquid to exit vapor delivery ports of the vapor delivery needle; and an electronic controller operatively coupled to the vapor generator, the electronic controller being configured to: activate a flow of vapor from the vapor generator through the vapor delivery ports of the vapor delivery needle to cause condensed liquid to exit the vapor delivery ports of the vapor delivery needle; deliver a dose of vapor from the vapor generator through the vapor delivery activate a flow of vapor from the vapor generator through the vapor delivery ports of the vapor delivery needle to cause condensed liquid to exit the vapor delivery ports of the vapor delivery needle; deliver a dose of vapor from the vapor generator through the vapor delivery ports of the vapor delivery needle into the prostate, characterised in that the electronic controller is further being configured to: after the dose of vapor is delivered, re-activate the flow of vapor from the vapor generator through the vapor delivery needle to prevent a vacuum from forming in the vapor delivery needle.
A system for electricity generation, comprising: an energy storage subsystem including at least one air storage vessel arranged in a borehole made in the ground, and configured to store energy in the form of compressed air, said at least one air storage vessel being surrounded by a compacted and thermally isolated filling material filling a space between walls of said at least one air storage vessel and walls of the borehole to maintain the compressed air during storage at a temperature greater than a temperature of ambient air in the atmosphere; and an electricity generation subsystem including an airlift pumping system pneumatically coupled to said at least one air storage vessel of the energy storage subsystem and a hydro-electric power system driven by the airlift pumping system, and said electricity generation subsystem being configured to produce electricity by utilizing the compressed air stored in the energy storage subsystem at the temperature greater than the temperature of ambient air in the atmosphere. an energy storage subsystem including at least one air storage vessel arranged in a borehole made in the ground, and configured to store energy in the form of compressed air, said at least one air storage vessel being surrounded by a compacted and thermally isolated filling material filling a space between walls of said at least one air storage vessel and walls of the borehole to maintain the compressed air during storage at a temperature greater than a temperature of ambient air in the atmosphere; and an electricity generation subsystem including an airlift pumping system pneumatically coupled to said at least one air storage vessel of the energy storage subsystem and a hydro-electric power system driven by the airlift pumping system, and said electricity generation subsystem being configured to produce electricity by utilizing the compressed air stored in the energy storage subsystem at the temperature greater than the temperature of ambient air in the atmosphere.
Method for the production of cell-membrane derived nanoparticles comprising the steps of: I) providing from two to four cell cultures, each cell culture being of a different cell line, and collecting a predetermined number of cells from each cell line; II) lysing the predetermined number of cells of each cell line to obtain lysates of each cell line; III) extracting cell membranes from the lysate of each cell line to obtain cell membrane dispersions of each cell line; IV) mixing the cell membrane dispersion of each cell line in amounts so that the corresponding predetermined number of cells collected from each cell line represents from 0.25 to 4 parts of the total number of cells collected in step, and adding an aqueous solution or dispersion containing a therapeutic or diagnostic ingredient to obtain a mix dispersion; V) homogenising the mix dispersion at an external air pressure ranging from 0.552 to 1.151 MPa (80 to 167 psi), with a number of passages ranging from 6 to 14, to form a dispersion containing a plurality of nanoparticles; VI) isolating the plurality of nanoparticles from the dispersion containing them. I) providing from two to four cell cultures, each cell culture being of a different cell line, and collecting a predetermined number of cells from each cell line; II) lysing the predetermined number of cells of each cell line to obtain lysates of each cell line; III) extracting cell membranes from the lysate of each cell line to obtain cell membrane dispersions of each cell line; IV) mixing the cell membrane dispersion of each cell line in amounts so that the corresponding predetermined number of cells collected from each cell line represents from 0.25 to 4 parts of the total number of cells collected in step, and adding an aqueous solution or dispersion containing a therapeutic or diagnostic ingredient to obtain a mix dispersion; V) homogenising the mix dispersion at an external air pressure ranging from 0.552 to 1.151 MPa (80 to 167 psi), with a number of passages ranging from 6 to 14, to form a dispersion containing a plurality of nanoparticles; VI) isolating the plurality of nanoparticles from the dispersion containing them.
A bonding substrate fabrication method for fabricating a bonding substrate on which a bonding surface is formed, the bonding substrate fabrication method comprising: a) a surface treatment step (F03, L02) of surface-treating a surface of a substrate (L01, H6) by irradiation with radiated particles including energetic particles by means of an energetic particle source disposed inside a process chamber; and b) a step of forming a silicon thin film on the surface-treated substrate surface to fabricate the bonding substrate inside the process chamber, the method further comprising a second surface treatment step of surface-treating the formed silicon thin film by irradiation with radiated particles including metal particles to fabricate the bonding substrate, wherein the surface treatment step includes a process of irradiating the substrate surface with radiated particles including metal particles by means of a metal particle source comprising a metal body generating metal radiated particles by sputtering due to radiated particles from the energetic particle source. a) a surface treatment step (F03, L02) of surface-treating a surface of a substrate (L01, H6) by irradiation with radiated particles including energetic particles by means of an energetic particle source disposed inside a process chamber; and b) a step of forming a silicon thin film on the surface-treated substrate surface to fabricate the bonding substrate inside the process chamber,
Use of a composition comprising A) 10 to 50 wt.% of at least one polyisocyanate a-1) based on hexamethylene diisocyanate, containing at least one oligomeric polyisocyanate based on hexamethylene diisocyanate and optionally monomeric hexamethylene diisocyanate and 50 to 90 wt.% of at least one polyisocyanate a-2) based on isophorone diisocyanate, containing at least one oligomeric polyisocyanate based on isophorone diisocyanate and optionally monomeric isophorone diisocyanate, provided that the polyisocyanate a-1) contains monomeric hexamethylene diisocyanate, or the polyisocyanate a-2) contains monomeric isophorone diisocyanate, or the polyisocyanate a-1) contains monomeric hexamethylene diisocyanate and the polyisocyanate a-2) contains monomeric isophorone diisocyanate, wherein the %-values relate to the sum of the components a-1) and a-2), B) at least one sulphur-containing component and optionally C) one or more auxiliaries and/or additives for the manufacture of an optical lens. A) 10 to 50 wt.% of at least one polyisocyanate a-1) based on hexamethylene diisocyanate, containing at least one oligomeric polyisocyanate based on hexamethylene diisocyanate and optionally monomeric hexamethylene diisocyanate and 50 to 90 wt.% of at least one polyisocyanate a-2) based on isophorone diisocyanate, containing at least one oligomeric polyisocyanate based on isophorone diisocyanate and optionally monomeric isophorone diisocyanate, provided that the polyisocyanate a-1) contains monomeric hexamethylene diisocyanate, or the polyisocyanate a-2) contains monomeric isophorone diisocyanate, or the polyisocyanate a-1) contains monomeric hexamethylene diisocyanate and the polyisocyanate a-2) contains monomeric isophorone diisocyanate, wherein the %-values relate to the sum of the components a-1) and a-2), B) at least one sulphur-containing component and optionally C) one or more auxiliaries and/or additives for the manufacture of an optical lens.
A plastic injection moulding machine with a machine frame that accommodates an injection moulding arrangement and with a handling device that is arranged on the machine frame above the injection moulding arrangement, wherein the handling device has a linear guide that extends in a first horizontal direction (x) along a longitudinal direction of the machine frame and is fastened on the machine frame, as well as a first carriage that is arranged so as to be displaceable along the linear guide, wherein a linear guiding device with a travel section, which extends along a second horizontal direction (y) and on which a second carriage is displaceably supported, is fastened on the first carriage, and wherein the second carriage carries a handling module, wherein the linear guiding device furthermore has a compensating section, which starting from the linear guide extends along the second horizontal direction (y) opposite of the travel section, and wherein a balancing weight for compensating tilting moments is displaceably arranged on the compensating section.
An intravascular catheter for treating an area of tissue, the intravascular catheter comprising: a first expandable member disposed on a portion of the catheter; a second expandable member disposed within the first expandable member to define an interstitial region therebetween, the second expandable member defining a cooling chamber therein; a volume of an interstitial agent disposed within the interstitial region, the volume of the interstitial agent comprising a gel, saline, contrast solution, or mixture thereof having a viscosity between 6 x 10 -4 Pa.s (0.6 cP) and 2 Pa.s (2000 cP), having a thermal conductivity of between 0.1 W/(mK) and 1 W/(mK), the amount of volume of the interstitial agent being configured such that at least partial contact between the first and second expandable members is achieved when at least a portion of the first expandable member is in contact with the area of tissue during a treatment procedure, the contact involving a compressive force against the tissue that is atraumatic to the tissue; a coolant flow path in fluid communication with the cooling chamber; and a cryogenic coolant source in fluid communication with the coolant flow path, contacting the area of tissue with the intravascular catheter during use resulting in the deformation of the first expandable member and compression of the interstitial agent towards a proximal portion of the interstitial region. a first expandable member disposed on a portion of the catheter; a second expandable member disposed within the first expandable member to define an interstitial region therebetween, the second expandable member defining a cooling chamber therein; a volume of an interstitial agent disposed within the interstitial region, the volume of the interstitial agent comprising a gel, saline, contrast solution, or mixture thereof having a viscosity between 6 x 10 -4 Pa.s (0.6 cP) and 2 Pa.s (2000 cP), having a thermal conductivity of between 0.1 W/(mK) and 1 W/(mK), the amount of volume of the interstitial agent being configured such that at least partial contact between the first and second expandable members is achieved when at least a portion of the first expandable member is in contact with the area of tissue during a treatment procedure, the contact involving a compressive force against the tissue that is atraumatic to the tissue; a coolant flow path in fluid communication with the cooling chamber; and a cryogenic coolant source in fluid communication with the coolant flow path, contacting the area of tissue with the intravascular catheter during use resulting in the deformation of the first expandable member and compression of the interstitial agent towards a proximal portion of the interstitial region.
A method for separating particulates from a cycle gas stream of a fluidized bed polymerization reactor system that includes a reactor vessel, the method comprising: compressing a cycle gas stream having particulates entrained therein; removing at least some of the particulates from the compressed gas stream; feeding the removed particulates into the reactor vessel of the reactor system; characterized in that a concentrator concentrates at least some of the particulates in the compressed cycle gas stream in a second gas stream, the second gas stream comprising gas diverted from the compressed cycle gas stream; and directing the second gas stream into the reactor vessel. compressing a cycle gas stream having particulates entrained therein; removing at least some of the particulates from the compressed gas stream; feeding the removed particulates into the reactor vessel of the reactor system; characterized in that a concentrator concentrates at least some of the particulates in the compressed cycle gas stream in a second gas stream, the second gas stream comprising gas diverted from the compressed cycle gas stream; and directing the second gas stream into the reactor vessel.