mhurhangee/ep-ind-claims huggingface dataset:
A process for coating a part comprising the steps of: a. loading at least one bond coated part into a load chamber; b. moving the at least one bond coated part from the load chamber to a preheat chamber; c. backfilling said preheat chamber with a protective atmosphere of carbon dioxide; d. reducing the pressure in the preheat chamber to in the range of 1.33Nm -2 and 0.00133Nm -2; e. heating said at least one bond coated part within said preheat chamber to a temperature in the range of 982°C - 1093°C; f. flowing carbon dioxide into the preheat chamber at a flow rate in the range of 50sccm - 500sccm while maintaining a pressure in the range of 1.33Nm -2 - 0.00133Nm -2 causing a thermally grown oxide layer to form; g. moving said at least one bond coated part with said thermally grown oxide layer to a coating chamber; wherein the flowing step occurs after the temperature of said at least one bond coated part has reached 1000°C; and wherein, during the heating step, the protective atmosphere becomes an equilibrium mixture of carbon monoxide/carbon dioxide of a ratio of greater than 10,000; and wherein said thermally grown oxide layer comprises an alpha alumina thermally grown oxide layer and wherein said bond coated part comprises a bond coat comprising MCrAlY; wherein MCrAlY is NiCrAlY or CoCrAlY. a. loading at least one bond coated part into a load chamber; b. moving the at least one bond coated part from the load chamber to a preheat chamber; c. backfilling said preheat chamber with a protective atmosphere of carbon dioxide; d. reducing the pressure in the preheat chamber to in the range of 1.33Nm -2 and 0.00133Nm -2; e. heating said at least one bond coated part within said preheat chamber to a temperature in the range of 982°C - 1093°C; f. flowing carbon dioxide into the preheat chamber at a flow rate in the range of 50sccm - 500sccm while maintaining a pressure in the range of 1.33Nm -2 - 0.00133Nm -2 causing a thermally grown oxide layer to form; g. moving said at least one bond coated part with said thermally grown oxide layer to a coating chamber;
A recombinant adeno-associated virus comprising the MYOT miRNA-encoding DNA set out in SEQ ID NO: 1, 2, 3 or 4, wherein the recombinant adeno-associated virus lacks rep and cap genes.
A solid-state imaging device comprising: a pixel unit provided with a plurality of rows, each row including a plurality of pixels and extending in a horizontal direction; a readout row selection unit configured to select one of the plurality of rows as a readout row every time a predetermined period elapses and cause each of the plurality of pixels in the readout row to generate a signal potential according to a received light amount; a reference row selection unit configured to select a row different from a previous row from among the plurality of rows as a current reference row every time the predetermined period elapses, and cause each of the plurality of pixels in the reference row to generate a predetermined reference potential; a readout circuit unit configured to read a signal according to a difference between the signal potential and the reference potential; and a random number generation unit configured to generate a predetermined random number, wherein the reference row selection unit is configured to select the reference row on a basis of the random number. a pixel unit provided with a plurality of rows, each row including a plurality of pixels and extending in a horizontal direction; a readout row selection unit configured to select one of the plurality of rows as a readout row every time a predetermined period elapses and cause each of the plurality of pixels in the readout row to generate a signal potential according to a received light amount; a reference row selection unit configured to select a row different from a previous row from among the plurality of rows as a current reference row every time the predetermined period elapses, and cause each of the plurality of pixels in the reference row to generate a predetermined reference potential; a readout circuit unit configured to read a signal according to a difference between the signal potential and the reference potential; and a random number generation unit configured to generate a predetermined random number, wherein the reference row selection unit is configured to select the reference row on a basis of the random number.
Control device comprising a mobile control button having a part to be inserted into an opening of a housing front panel, an electronic card, a light source located in a substantially central position relative to the mobile control button, and light guide means conveying the light from the light source to a visible part of the light guide means, the light guide means comprising at least a part of the hollow part to be inserted of the button, characterized in that the light source is a light-emitting diode located outside and beyond the end of the part to be inserted, and between said electronic card and said end of the part to be inserted and incorporated on the electronic card, and in that the visible part of the light guide means encircles the control button.
A refrigerator comprising: a main body; a storage chamber provided in the main body; an evaporator configured to generate cool air to the storage chamber; and a cool air duct forming an air flow passage such that cool air generated by the evaporator is supplied to the storage chamber, wherein the cool air duct includes: a front panel formed of a metal material and having cool air outlets; a cool air flow passage unit provided at a rear side of the front panel; and a fan mounting unit provided at a lower side of the cool air flow passage unit and configured to mount a fan that allows cool air generated by the evaporator to be supplied to the storage chamber, wherein the cool air flow passage unit includes a first part coupled to a second part to form the air flow passage between the first part and the second part, the first part having openings to discharge cool air guided through the air flow passage to inside of the storage chamber through the cool air outlets of the front panel; wherein the second part is disposed at a back side of the first part. a main body; a storage chamber provided in the main body; an evaporator configured to generate cool air to the storage chamber; and a cool air duct forming an air flow passage such that cool air generated by the evaporator is supplied to the storage chamber, wherein the cool air duct includes: a front panel formed of a metal material and having cool air outlets; a cool air flow passage unit provided at a rear side of the front panel; and a fan mounting unit provided at a lower side of the cool air flow passage unit and configured to mount a fan that allows cool air generated by the evaporator to be supplied to the storage chamber, wherein the cool air flow passage unit includes a first part coupled to a second part to form the air flow passage between the first part and the second part, the first part having openings to discharge cool air guided through the air flow passage to inside of the storage chamber through the cool air outlets of the front panel; wherein the second part is disposed at a back side of the first part. a front panel formed of a metal material and having cool air outlets; a cool air flow passage unit provided at a rear side of the front panel; and a fan mounting unit provided at a lower side of the cool air flow passage unit and configured to mount a fan that allows cool air generated by the evaporator to be supplied to the storage chamber, wherein the cool air flow passage unit includes a first part coupled to a second part to form the air flow passage between the first part and the second part, the first part having openings to discharge cool air guided through the air flow passage to inside of the storage chamber through the cool air outlets of the front panel; wherein the second part is disposed at a back side of the first part.
A method for drilling holes in soil or rock material and for fixing an anchor in a borehole, wherein an expanding element fixed to a drill or anchor rod and a spreading element to be expanded, in particular in the form of a sleeve, are introduced with the drill or anchor rod provided with a drill bit, into the soil or rock material at the same time as the borehole is being formed, in particular by rotary and percussive or rotary drilling, the spreading element is expanded to butt against the wall of the borehole after completion of the borehole by the drill or anchor rod and the expanding element arranged thereon being retracted into the interior of the spreading element, and the drill or anchor rod is secured at its end protruding from the borehole by an anchor plate on an outer side of the borehole, characterized in that, after the expansion of the spreading element, the drill or anchor rod is subjected to a rotary movement in the direction of the interior of the borehole until there is abutment with the interior of the borehole, and that the drill or anchor rod is fixed to the outside of the borehole by bracing the anchor plate by means of a nut formed as a locating element for an insertion device.
System for the production of a beverage, in particular a cold beverage, having a cartridge which has a reservoir filled with a beverage substance, and a beverage preparation unit having a cartridge receptacle in which the cartridge can be reversibly inserted, and a cartridge discharge device which causes an at least partial transfer of the beverage substance from the reservoir into a mixing chamber, wherein the system has a movable plunger which is arranged inside the reservoir and which can be transferred from a starting position into a final position by means of the cartridge discharge device, characterized in that the cartridge discharge device has a negative pressure device, wherein the system is configured in such a way that the plunger is transferred from the starting position into the final position by the negative pressure.
A dispenser, comprising: a housing defining an internal volume; a cartridge coupled with the housing; and a pump assembly comprising a tube extending through the cartridge and into the internal volume of the housing, wherein the tube includes a first inlet through which a first liquid is drawn into the tube from the internal volume when the pump assembly is actuated, and a second inlet through which a second liquid is drawn into the tube from the cartridge when the pump assembly is actuated, wherein the cartridge comprises a first portion having the second liquid disposed therein and a second portion defining a bore through which the tube extends, and wherein the tube, the first portion and the second portion are concentric with one another, characterized in that the dispenser further comprises a connecting member that couples the first portion to the second portion, the connecting member providing a flowpath from the first portion to an annulus formed between the tube and the second portion, so that the second liquid may then flow from the annulus into the tube through the second inlet. a housing defining an internal volume; a cartridge coupled with the housing; and a pump assembly comprising a tube extending through the cartridge and into the internal volume of the housing, wherein the tube includes a first inlet through which a first liquid is drawn into the tube from the internal volume when the pump assembly is actuated, and a second inlet through which a second liquid is drawn into the tube from the cartridge when the pump assembly is actuated, wherein the cartridge comprises a first portion having the second liquid disposed therein and a second portion defining a bore through which the tube extends, and wherein the tube, the first portion and the second portion are concentric with one another, characterized in that the dispenser further comprises a connecting member that couples the first portion to the second portion, the connecting member providing a flowpath from the first portion to an annulus formed between the tube and the second portion, so that the second liquid may then flow from the annulus into the tube through the second inlet.
A bone fixation body, comprising: a plurality of links spaced from each other along a first direction, the links defining respective crests and valleys offset from each other along a second direction that is perpendicular to the first direction, and side members (48, 50) that extend between the crests and valleys, such that at least some of the links, in combination, define a plurality of securement locations and a plurality of attachment locations that are spaced from each other at least along the first direction, wherein the attachment locations are configured to receive fasteners therethrough and into an underlying jaw bone so as to attach the bone fixation body to the underlying jaw bone, and wherein the securement locations are configured to engage with a respective securement device that secures the fixation body to complementary securement locations of a second fixation body, wherein the securement locations comprise tangs that extend from the respective ones ol the crests along a direction from the crests toward the valleys, characterized that the side members (48, 50) each define an offset region that offsets the securement locations from the attachment locations along a third direction that is substantially perpendicular to each of the first and second directions (L, T). a plurality of links spaced from each other along a first direction, the links defining respective crests and valleys offset from each other along a second direction that is perpendicular to the first direction, and side members (48, 50) that extend between the crests and valleys, such that at least some of the links, in combination, define a plurality of securement locations and a plurality of attachment locations that are spaced from each other at least along the first direction, wherein the attachment locations are configured to receive fasteners therethrough and into an underlying jaw bone so as to attach the bone fixation body to the underlying jaw bone, and wherein the securement locations are configured to engage with a respective securement device that secures the fixation body to complementary securement locations of a second fixation body, wherein the securement locations comprise tangs that extend from the respective ones ol the crests along a direction from the crests toward the valleys, characterized that the side members (48, 50) each define an offset region that offsets the securement locations from the attachment locations along a third direction that is substantially perpendicular to each of the first and second directions (L, T).
A method for obtaining polyaniline/reduced graphene oxide composites comprising the steps of: - dispersing the graphene oxide in an aqueous acid solution containing an emulsifying agent to obtain a graphene oxide dispersion; - dissolving one or more aniline oligomers in an organic solvent to obtain an oligomer solution; - mixing the oligomer solution with the graphene oxide dispersion, said oligomer being added in a stoichiometric excess compared to the quantity required to complete the graphene oxide reduction; - adding to the suspension of the polyaniline/reduced graphene oxide composite an oxidizing agent in a stoichiometric quantity compared to said excess of oligomer so as to oxidize the excess of said oligomer to obtain a suspension of the polyaniline/reduced graphene oxide composite. - dispersing the graphene oxide in an aqueous acid solution containing an emulsifying agent to obtain a graphene oxide dispersion; - dissolving one or more aniline oligomers in an organic solvent to obtain an oligomer solution; - mixing the oligomer solution with the graphene oxide dispersion, said oligomer being added in a stoichiometric excess compared to the quantity required to complete the graphene oxide reduction; - adding to the suspension of the polyaniline/reduced graphene oxide composite an oxidizing agent in a stoichiometric quantity compared to said excess of oligomer so as to oxidize the excess of said oligomer to obtain a suspension of the polyaniline/reduced graphene oxide composite.
A method for producing a quartz glass body, comprising the following method steps: i) A) providing and introducing at least one bulk material via a solids feed into a furnace comprising a crucible, wherein silicon dioxide granulate from pyrogenically produced silicon dioxide powder is used as the bulk material, wherein the silicon dioxide granulate has a BET surface area in a range of from 20 to 50 m 2 /g; B) providing a gas; ii) forming a glass melt from the bulk material in the crucible; iii) forming a quartz glass body from at least part of the glass melt, wherein at least some of the gas is supplied to the crucible through at least one gas inlet and discharged through at least one gas outlet, wherein the at least one gas inlet is arranged below the at least one solids feed, wherein the gas outlet is arranged at the same height as or above the outlet of the solids feed; wherein the gas is supplied through a gas inlet in the gas space of the crucible; where the glass melt is located in the lower region of the crucible, wherein the crucible is heated by means of electrical heating elements, in particular by means of a resistive or an inductive heater. i) A) providing and introducing at least one bulk material via a solids feed into a furnace comprising a crucible, wherein silicon dioxide granulate from pyrogenically produced silicon dioxide powder is used as the bulk material, wherein the silicon dioxide granulate has a BET surface area in a range of from 20 to 50 m 2 /g; B) providing a gas; A) providing and introducing at least one bulk material via a solids feed into a furnace comprising a crucible, wherein silicon dioxide granulate from pyrogenically produced silicon dioxide powder is used as the bulk material, wherein the silicon dioxide granulate has a BET surface area in a range of from 20 to 50 m 2 /g; B) providing a gas; ii) forming a glass melt from the bulk material in the crucible; iii) forming a quartz glass body from at least part of the glass melt, wherein at least some of the gas is supplied to the crucible through at least one gas inlet and discharged through at least one gas outlet, wherein the at least one gas inlet is arranged below the at least one solids feed, wherein the gas outlet is arranged at the same height as or above the outlet of the solids feed; wherein the gas is supplied through a gas inlet in the gas space of the crucible; where the glass melt is located in the lower region of the crucible, wherein the crucible is heated by means of electrical heating elements, in particular by means of a resistive or an inductive heater.
A method for isolating and analyzing an analyte that may be present in a fluid sample, the method comprising the automated steps of: a) transferring said fluid sample from a sample vessel to a processing vessel with a first pipette tip of a first type; b) combining together magnetic particles and said fluid sample in a well of said processing vessel for a period of time and under conditions sufficient to permit said analyte to be immobilized on the magnetic particles; c) isolating the magnetic particles from other material present in the fluid sample in a separation station; and d) purifying the analyte in the separation station by separating the fluid sample from the magnetic particles and washing the magnetic particles one or more times with a wash buffer; e) eluting the analyte from the magnetic particles; f) transferring the analyte from said processing vessel to a reaction vessel with a second type of pipette tips; g) reacting said purified analyte with reagents necessary to obtain a detectable signal; wherein said first pipette tip of a first type used in step a) is re-used for washing in step d) and wherein said pipette tip of a first type is stored in a rack (60,70) comprising pipette tips of a first type and pipette tips of a second type and the first type of pipette tips and the second type of pipette tips are stored in said rack (60,70) at least between being used for pipetting. a) transferring said fluid sample from a sample vessel to a processing vessel with a first pipette tip of a first type; b) combining together magnetic particles and said fluid sample in a well of said processing vessel for a period of time and under conditions sufficient to permit said analyte to be immobilized on the magnetic particles; c) isolating the magnetic particles from other material present in the fluid sample in a separation station; and d) purifying the analyte in the separation station by separating the fluid sample from the magnetic particles and washing the magnetic particles one or more times with a wash buffer; e) eluting the analyte from the magnetic particles; f) transferring the analyte from said processing vessel to a reaction vessel with a second type of pipette tips; g) reacting said purified analyte with reagents necessary to obtain a detectable signal; wherein said first pipette tip of a first type used in step a) is re-used for washing in step d) and wherein said pipette tip of a first type is stored in a rack (60,70) comprising pipette tips of a first type and pipette tips of a second type and the first type of pipette tips and the second type of pipette tips are stored in said rack (60,70) at least between being used for pipetting.
A power generating system architecture comprising: a prime mover; a generator component including a switched reluctance generator, the switched reluctance generator being mechanically coupled to the prime mover and having a plurality of stator pole windings; a DC power bus connected to at least one output of the switched reluctance generator, the DC power bus including a positive bus bar and a negative bus bar; a plurality of series arranged energy storage devices connecting the positive bus bar and the negative bus bar; a plurality of state of charge modules connected to said plurality of energy storage devices, each of said state of charge modules being communicatively coupled to a generator controller; and the generator controller being configured to independently control each of said stator pole windings. a prime mover; a generator component including a switched reluctance generator, the switched reluctance generator being mechanically coupled to the prime mover and having a plurality of stator pole windings; a DC power bus connected to at least one output of the switched reluctance generator, the DC power bus including a positive bus bar and a negative bus bar; a plurality of series arranged energy storage devices connecting the positive bus bar and the negative bus bar; a plurality of state of charge modules connected to said plurality of energy storage devices, each of said state of charge modules being communicatively coupled to a generator controller; and the generator controller being configured to independently control each of said stator pole windings.