mhurhangee/ep-ind-claims huggingface dataset:
Electric oven, comprising: a cavity; a sensor positioned at any point in the cavity for detecting a temperature, a key manipulation unit configured to manipulate the electric oven; a controller configured to control the temperature in the cavity of the electric oven to a set temperature according to a signal of the key manipulation unit; and at least one heater (5, 6, 7) configured to be operated at a predetermined heating on/off cycle by means of the controller, the heating on/off cycle includes a heater-on time and a heater-off time, wherein the at least one heater (5, 6, 7) is configured to be operated with a variable heating on/off cycle, wherein a heater-on time in the heating on/off cycle of the heater (5, 6, 7) is configured to be changed at a predetermined period by comparing a current temperature sensed by the sensor in the cavity with the set temperature inputted by a user, wherein the heater-off time in the heating on/off cycle is fixed, the controller being further configured to adjust the heating on/off cycle such that after the at least one heater (5, 6, 7) operates for a current cycle period with a current heating on/off cycle, the controller operates the at least one heater (5, 6, 7) with a new heating on/off cycle by adjusting the heater on-time of the current heating on/off cycle based on a difference between a current temperature in the cavity and the set temperature, the least one heater (5, 6, 7) operates with the new heating on/off cycle in a next cycle period. a cavity; a sensor positioned at any point in the cavity for detecting a temperature, a key manipulation unit configured to manipulate the electric oven; a controller configured to control the temperature in the cavity of the electric oven to a set temperature according to a signal of the key manipulation unit; and at least one heater (5, 6, 7) configured to be operated at a predetermined heating on/off cycle by means of the controller, the heating on/off cycle includes a heater-on time and a heater-off time, wherein the at least one heater (5, 6, 7) is configured to be operated with a variable heating on/off cycle, wherein a heater-on time in the heating on/off cycle of the heater (5, 6, 7) is configured to be changed at a predetermined period by comparing a current temperature sensed by the sensor in the cavity with the set temperature inputted by a user, wherein the heater-off time in the heating on/off cycle is fixed, the controller being further configured to adjust the heating on/off cycle such that after the at least one heater (5, 6, 7) operates for a current cycle period with a current heating on/off cycle, the controller operates the at least one heater (5, 6, 7) with a new heating on/off cycle by adjusting the heater on-time of the current heating on/off cycle based on a difference between a current temperature in the cavity and the set temperature, the least one heater (5, 6, 7) operates with the new heating on/off cycle in a next cycle period.
An engineered landing pad comprising: a nucleotide sequence having the formula X 1 -Y-X 2; wherein Y comprises at least one targeting endonuclease binding site; wherein X 1 is a selected nucleotide sequence lacking homology with the genome of the host organism and positioned 5' of Y; and wherein X 2 is a selected nucleotide sequence lacking homology with the genome of the host organism that is different from X 1., wherein X1 and/or X2 comprises one or more of the nucleotide sequence of SEQ ID NOs: 1-14, 17, and 18. a nucleotide sequence having the formula X 1 -Y-X 2; wherein Y comprises at least one targeting endonuclease binding site; wherein X 1 is a selected nucleotide sequence lacking homology with the genome of the host organism and positioned 5' of Y; and wherein X 2 is a selected nucleotide sequence lacking homology with the genome of the host organism that is different from X 1., wherein X1 and/or X2 comprises one or more of the nucleotide sequence of SEQ ID NOs: 1-14, 17, and 18.
A method in a mobile device for reporting crowdsourcing measurements to a first server, comprising: receiving a request from a second server, wherein the request comprises first control parameters and first measurement parameters; returning a response to the second server, wherein the response comprises second control parameters and second measurement parameters; obtaining a plurality of measurement sets at a first plurality of different times, wherein the plurality of measurement sets are based on the second measurement parameters, wherein each of the plurality of measurement sets is divided into a sequence of measurement subsets, wherein each measurement subset contains a plurality of measurements, and wherein the first plurality of different times is based on the second control parameters; packing the plurality of measurement subsets into a plurality of measurement reports, wherein each measurement report contains a plurality of measurement subsets; and sending the plurality of measurement reports at a second plurality of different times, wherein the second plurality of different times is based on the second control parameters. receiving a request from a second server, wherein the request comprises first control parameters and first measurement parameters; returning a response to the second server, wherein the response comprises second control parameters and second measurement parameters; obtaining a plurality of measurement sets at a first plurality of different times, wherein the plurality of measurement sets are based on the second measurement parameters, wherein each of the plurality of measurement sets is divided into a sequence of measurement subsets, wherein each measurement subset contains a plurality of measurements, and wherein the first plurality of different times is based on the second control parameters; packing the plurality of measurement subsets into a plurality of measurement reports, wherein each measurement report contains a plurality of measurement subsets; and sending the plurality of measurement reports at a second plurality of different times, wherein the second plurality of different times is based on the second control parameters.
An anti-TFPI antibody formulation, comprising: a. 10 mM to 30 mM histidine, b. 50 ppm to 200 ppm of a non-ionic surfactant, c. 88 mM to 292 mM of sucrose, d. 0 mM to 50 mM arginine, e. 0 mM to 50 mM lysine, f. 0 mM to 133 mM glycine or alanine g. 0 mM to 10 mM methionine, and h. 1 mg/ml to 150 mg/ml of anti-TFPI antibody; wherein said anti-TFPI antibody formulation has a pH of 4.0 to 6.0, and wherein the concentration of inorganic salts of said anti-TFPI antibody formulation does not exceed 2 mM, and wherein said anti-TFPI antibody comprises a light chain comprising the amino acid sequence of SEQ ID NO: 1 and a heavy chain comprising the amino acid sequence of SEQ ID NO: 2. a. 10 mM to 30 mM histidine, b. 50 ppm to 200 ppm of a non-ionic surfactant, c. 88 mM to 292 mM of sucrose, d. 0 mM to 50 mM arginine, e. 0 mM to 50 mM lysine, f. 0 mM to 133 mM glycine or alanine g. 0 mM to 10 mM methionine, and h. 1 mg/ml to 150 mg/ml of anti-TFPI antibody;
A blade assembly adapted to heat, cut and seal thermoplastic film in a sealing machine comprising: a heat source; an oval shaped metallic member in thermal contact with said heat source and having four distinct cutting surfaces, said metallic member being positioned on said assembly such that a portion of one of said cutting surfaces is positioned to contact said film. a heat source; an oval shaped metallic member in thermal contact with said heat source and having four distinct cutting surfaces, said metallic member being positioned on said assembly such that a portion of one of said cutting surfaces is positioned to contact said film.
An integrated circuit comprising: an interconnect layer including a layer of a dielectric material (405, 410) and a plurality of interconnect structures extending through the layer of the dielectric material, wherein the layer of the dielectric material comprises a channel formed therein, wherein sidewalls of the channel are formed by the dielectric material; and a micro-electro-mechanical system (MEMS) resonator structure disposed within the channel, wherein an air gap separates the resonator structure from the layer of the dielectric material, the resonator structure to provide an output signal corresponding to a temperature detected by the resonator structure, the air gap to allow the resonator structure to resonate within the channel; and said integrated circuit being characterised by a seal covering a region of the interconnect layer including the MEMS resonator structure, wherein one or more output electrodes extend through the seal and couple to the resonator structure, wherein the resonator structure is suspended in the channel while being supported at least partially by the one or more output electrodes. an interconnect layer including a layer of a dielectric material (405, 410) and a plurality of interconnect structures extending through the layer of the dielectric material, wherein the layer of the dielectric material comprises a channel formed therein, wherein sidewalls of the channel are formed by the dielectric material; and a micro-electro-mechanical system (MEMS) resonator structure disposed within the channel, wherein an air gap separates the resonator structure from the layer of the dielectric material, the resonator structure to provide an output signal corresponding to a temperature detected by the resonator structure, the air gap to allow the resonator structure to resonate within the channel; and a seal covering a region of the interconnect layer including the MEMS resonator structure, wherein one or more output electrodes extend through the seal and couple to the resonator structure, wherein the resonator structure is suspended in the channel while being supported at least partially by the one or more output electrodes.
A multi-electrode system comprises: a support configured to hold at least one optical fiber; characterized by a set of at least three electrodes (202, 204, 206) disposed within a vacuum enclosure providing at least a partial vacuum and disposed about the at least one optical fiber when held by the support; and a circuit including a controller configured to drive the electrodes to generate plasma arcs (212, 214, 216) between electrodes, the plasma arcs surrounding the at least one fiber to produce a substantially uniform heated plasma field about an outer surface of the at least one optical fiber enveloping the entire circumference of the fiber in the heated plasma field, the controller configured to turn on the electrodes (202, 204, 206) in a rotating phase sequence, the rotating phase sequence established by the controller driving the at least three electrodes with waveforms separated in phase by an amount under control of the controller, the rotating phase sequence taking place so rapidly that the thermal time constants of the at least one optical fiber and surrounding air are longer than the total oscillation periods of a rotating phase sequence of arcs, to generate the even heat distribution. a support configured to hold at least one optical fiber; characterized by a set of at least three electrodes (202, 204, 206) disposed within a vacuum enclosure providing at least a partial vacuum and disposed about the at least one optical fiber when held by the support; and a circuit including a controller configured to drive the electrodes to generate plasma arcs (212, 214, 216) between electrodes, the plasma arcs surrounding the at least one fiber to produce a substantially uniform heated plasma field about an outer surface of the at least one optical fiber enveloping the entire circumference of the fiber in the heated plasma field, the controller configured to turn on the electrodes (202, 204, 206) in a rotating phase sequence, the rotating phase sequence established by the controller driving the at least three electrodes with waveforms separated in phase by an amount under control of the controller, the rotating phase sequence taking place so rapidly that the thermal time constants of the at least one optical fiber and surrounding air are longer than the total oscillation periods of a rotating phase sequence of arcs, to generate the even heat distribution.
An airfoil comprising: an airfoil body extending from a radially inner root portion to a radially outer tip portion, the airfoil body extending from a pressure side to a suction side, the airfoil body extending from a leading edge to a trailing edge portion; the trailing edge portion comprising: a linear pressure side portion; a linear suction side portion; a trailing edge tip portion; and at least one elliptical portion (98, 100) disposed between the trailing edge tip portion and at least one of the linear pressure side portion and the linear suction side portion; characterized in that the trailing edge tip portion comprises a circular trailing edge tip portion disposed directly downstream of the at least one elliptical portion (98, 100) and defined by a circle that tangentially overlaps with the at least one elliptical portion (98, 100) in the vicinity of the trailing edge tip; and the at least one elliptical portion is defined by an ellipse having a skew angle between -10 degrees and 10 degrees but within this range other than 0 degrees, wherein the skew angle is the angle between a major axis (a) of the ellipse and a camber line of the airfoil. an airfoil body extending from a radially inner root portion to a radially outer tip portion, the airfoil body extending from a pressure side to a suction side, the airfoil body extending from a leading edge to a trailing edge portion; the trailing edge portion comprising: a linear pressure side portion; a linear suction side portion; a trailing edge tip portion; and at least one elliptical portion (98, 100) disposed between the trailing edge tip portion and at least one of the linear pressure side portion and the linear suction side portion; a linear pressure side portion; a linear suction side portion; a trailing edge tip portion; and at least one elliptical portion (98, 100) disposed between the trailing edge tip portion and at least one of the linear pressure side portion and the linear suction side portion; characterized in that the trailing edge tip portion comprises a circular trailing edge tip portion disposed directly downstream of the at least one elliptical portion (98, 100) and defined by a circle that tangentially overlaps with the at least one elliptical portion (98, 100) in the vicinity of the trailing edge tip; and the at least one elliptical portion is defined by an ellipse having a skew angle between -10 degrees and 10 degrees but within this range other than 0 degrees, wherein the skew angle is the angle between a major axis (a) of the ellipse and a camber line of the airfoil.
A method of making an injectable dermal filler composition comprising hyaluronic acid crosslinked with lysine for treating wrinkles in skin, the method comprising the steps of crosslinking HA with a di-amine crosslinker in the presence of a carbodiimide coupling agent wherein the di-amine crosslinker is lysine or lysine methyl ester and sizing the crosslinked hyaluronic acid hydrogel to a particle size from 10μm to 1000μm in diameter.
A method for transferring an assembly of oriented nanowires from a fluid to a substrate surface, comprising: providing a fluid to a container, said fluid comprising a first liquid, a second liquid and a plurality of nanowires, wherein the first and second liquids phase separate into a sub phase, a top phase, and an interface between the sub phase and the top phase; wherein the nanowires are functionalized to align vertically into a nanowire aggregate at the interface; and bringing the nanowire aggregate into contact with a substrate surface such that a majority of the nanowires are aligned with respect to each other on the substrate; characterised in that prior to bringing the aggregate into contact with a substrate said fluid is provided with a substance in a composition configured to change the composition of the top phase or the composition of the sub phase to counteract bulging of the interface providing a fluid to a container, said fluid comprising a first liquid, a second liquid and a plurality of nanowires, wherein the first and second liquids phase separate into a sub phase, a top phase, and an interface between the sub phase and the top phase; wherein the nanowires are functionalized to align vertically into a nanowire aggregate at the interface; and bringing the nanowire aggregate into contact with a substrate surface such that a majority of the nanowires are aligned with respect to each other on the substrate; characterised in that prior to bringing the aggregate into contact with a substrate said fluid is provided with a substance in a composition configured to change the composition of the top phase or the composition of the sub phase to counteract bulging of the interface
Method for operating an internal combustion engine, wherein the internal combustion engine has a cylinder, in which a piston mounted for reciprocating movement drives a crankshaft rotatably mounted in a crankcase, wherein the piston bounds a combustion chamber, wherein a spark plug extends into the combustion chamber, with a cranking device for starting the internal combustion engine, wherein the spark plug is ignited at an ignition point controlled by a control device, wherein the ignition point is controlled in an idle speed range in accordance with an idle control system (43, 44) having an earliest ignition point, wherein the internal combustion engine has a decompression valve, which connects the combustion chamber to a decompression chamber in the open state, wherein the decompression valve is opened at the start of the internal combustion engine and wherein the decompression valve closes if the pressure (p) in the combustion chamber exceeds a closing pressure, characterised in that the ignition occurs in the idle speed range for at least one engine cycle (x1, x2), divergently from the idle control system (43, 44), at a closing ignition point which lies in front of the earliest ignition point by a crankshaft angle (α) of at least approximately 5°, so that a higher pressure is obtained in the combustion chamber, leading to a save closing of the decompression valve.
Method for manufacturing an overmoulded part that defines a structural part for a motor vehicle, characterised in that it comprises: - a moulding step during which at least one member of the part is moulded from a first material containing a thermosetting material, using a mould (24;50) which comprises a die and a stamp forming a moulding chamber, the mould further comprising a block of dimensions much smaller than those of the mould and placed in the die, and a spindle located opposite the block, placed in the stamp; the spindle projecting past the stamp and being used to reduce the thickness of the moulding chamber locally, so as to form during the moulding a material web between the block and the spindle, the material web being recessed with respect to a front side of the part, the part forming in these portions a well opening onto the side and whose bottom is the material web, - an overmoulding step during which a second material containing a thermoplastic material is overmoulded on at least one of the material webs of the member so that the material web is torn under the pressure of the second material, a passage for the second material being then formed through the member. - a moulding step during which at least one member of the part is moulded from a first material containing a thermosetting material, using a mould (24;50) which comprises a die and a stamp forming a moulding chamber, the mould further comprising a block of dimensions much smaller than those of the mould and placed in the die, and a spindle located opposite the block, placed in the stamp; the spindle projecting past the stamp and being used to reduce the thickness of the moulding chamber locally, so as to form during the moulding a material web between the block and the spindle, the material web being recessed with respect to a front side of the part, the part forming in these portions a well opening onto the side and whose bottom is the material web, - an overmoulding step during which a second material containing a thermoplastic material is overmoulded on at least one of the material webs of the member so that the material web is torn under the pressure of the second material, a passage for the second material being then formed through the member.
A vessel having a body portion that is at least partially suspended above at least one left moveable hull and at least one right moveable hull, each moveable hull being moveable with respect to the body portion, at least one sensor (51, 52, 53, 54) arranged to sense at least one operational parameter of the vessel, and a controller configured to control a roll attitude of the body portion, the roll attitude (φ) of the body portion being adjustable and controlled during operation in response to said at least one operational parameter, the at least one operational parameter including at least one lateral acceleration parameter (143, 144), characterised in that the roll attitude (φ) is controlled to ensure that the sum (F R) of the gravitational force (F G) and the centrifugal force (F C) acting on the vessel during a turn has a line of action that is substantially perpendicular to a deck of the vessel.
A fabrication apparatus for - preferably automated or partly automated - fabrication or prefabrication of individual wire portions comprising a plurality of individual wire portions and at least one organization apparatus for receiving and organizing the plurality of individual prepared wire portions from the fabrication apparatus, wherein the at least one organization apparatus includes a main body and an organization portion for receiving the wire portions, wherein the organization portion is provided by a gap extending along the main body for threading on the plurality of individual wire portions along the gap, wherein the at least one organization apparatus can be releasably mounted to the fabrication apparatus, wherein at least one wire termination is arranged on each wire portion, and wherein the gap has two distal ends (E1, E2), wherein the first end has an insertion device for insertion of the individual wire portions, characterized in that the gap has a minimum gap width corresponding substantially to a wire diameter of the individual wire portions and a maximum gap width smaller than the termination diameter of the at least one wire termination arranged on the wire portion, wherein the connection between the plurality of individual wire portions and the organization apparatus is a positively locking connection, wherein the main body is formed by a hollow chamber profile member, and wherein the second end of the gap has an abutment portion for abutment engagement of the wire portions.