mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the removal of impurities from diathermic oil in a circuit , comprising the following steps: - taking a sample of diathermic oil from said circuit ; - subjecting said sample of diathermic oil to a laboratory test to check the aging of the oil and the presence of carbonaceous deposits; - drawing said diathermic oil from said circuit ; - subjecting said diathermic oil to a filtration process; - re-introducing said diathermic oil into said circuit after said filtration process, characterized in that : - said laboratory test comprises the step of measuring the kinematic viscosity value of said diathermic oil at a temperature of 40°C and comparing the measured value with a reference value; - if said measured kinematic viscosity value is greater than said reference value, said step of drawing said diathermic oil from said circuit comprises the step of bringing said diathermic oil to a temperature ≤ 80°C before subjecting said diathermic oil to said filtration process; - said step of subjecting said diathermic oil to a filtration process comprises the step of choosing between static filtration or dynamic filtration, depending on the viscosity value measured, where: - said step of static filtration comprises the step of providing a static filtration unit comprising at least one cartridge filter (F1, F2), and of feeding said diathermic oil to said at least one cartridge filter (F1, F2), - said step of dynamic filtration comprises the step of providing a dynamic filtration unit comprising a centrifugal separator (S) provided with an internal drum , and of feeding said diathermic oil to said centrifugal separator (S). - taking a sample of diathermic oil from said circuit ; - subjecting said sample of diathermic oil to a laboratory test to check the aging of the oil and the presence of carbonaceous deposits; - drawing said diathermic oil from said circuit ; - subjecting said diathermic oil to a filtration process; - re-introducing said diathermic oil into said circuit after said filtration process, - said laboratory test comprises the step of measuring the kinematic viscosity value of said diathermic oil at a temperature of 40°C and comparing the measured value with a reference value; - if said measured kinematic viscosity value is greater than said reference value, said step of drawing said diathermic oil from said circuit comprises the step of bringing said diathermic oil to a temperature ≤ 80°C before subjecting said diathermic oil to said filtration process; - said step of subjecting said diathermic oil to a filtration process comprises the step of choosing between static filtration or dynamic filtration, depending on the viscosity value measured, - said step of static filtration comprises the step of providing a static filtration unit comprising at least one cartridge filter (F1, F2), and of feeding said diathermic oil to said at least one cartridge filter (F1, F2), - said step of dynamic filtration comprises the step of providing a dynamic filtration unit comprising a centrifugal separator (S) provided with an internal drum , and of feeding said diathermic oil to said centrifugal separator (S).
A system, comprising: an imaging tool rotatable in a borehole and including a sensor assembly positionable on the imaging tool to transmit an electrical current toward a formation adjacent to the borehole , the sensor assembly including at least one sensor for generating one or more complex measurements that are affected by resistivity of the formation and a distance and a medium between the sensor assembly and the formation, wherein the one or more complex measurements include at least a real-part measurement that is affected by the resistivity of the formation and the distance between the sensor assembly and the formation, and an imaginary-part measurement that is affected by the distance between the sensor assembly and the formation; characterized in that it comprises a computing device couplable to the sensor assembly and including a processing device and a non-transitory computer-readable medium on which instructions are stored that are executable by the processing device to cause the processing device to generate an adjusted real-part measurement usable to determine a property change in the formation by applying a ratio to the real part of the measurement to reduce the effect of the distance between the sensor assembly and the formation on the real-part measurement, wherein the ratio includes the imaginary-part measurement that is sensitive to the distance between the sensor assembly and the formation as the imaging tool rotates in the borehole . an imaging tool rotatable in a borehole and including a sensor assembly positionable on the imaging tool to transmit an electrical current toward a formation adjacent to the borehole , the sensor assembly including at least one sensor for generating one or more complex measurements that are affected by resistivity of the formation and a distance and a medium between the sensor assembly and the formation, wherein the one or more complex measurements include at least a real-part measurement that is affected by the resistivity of the formation and the distance between the sensor assembly and the formation, and an imaginary-part measurement that is affected by the distance between the sensor assembly and the formation; characterized in that it comprises a computing device couplable to the sensor assembly and including a processing device and a non-transitory computer-readable medium on which instructions are stored that are executable by the processing device to cause the processing device to generate an adjusted real-part measurement usable to determine a property change in the formation by applying a ratio to the real part of the measurement to reduce the effect of the distance between the sensor assembly and the formation on the real-part measurement, wherein the ratio includes the imaginary-part measurement that is sensitive to the distance between the sensor assembly and the formation as the imaging tool rotates in the borehole .
A method for manufacturing an aluminium profile, in which method at least two mutually compatible aluminium profiles are extruded at the same time for matching the dimensioning of the profiles and then separated from one another, characterized in that said at least two mutually compatible aluminium profiles comprise a through-shaped profile with a matching cover, extruded with joining strips (A) between them.
A polymer composition comprising at least the following components A) 75 to 95.5 wt.-% based on the overall weight of the polymer composition of a polymer blend, comprising a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 9:1; and wherein the polymer blend A) is a recycled material; B) 4.5 to 25 wt.-% based on the overall weight of the polymer composition of a virgin ethylene alkyl (meth)acrylate having the following properties • MFR 2 (190°C, 2.16 kg) determined according to ISO 1133 in the range from 0.1 to 15 g/10 min; and • an alkyl (meth)acrylate content based on the total weight of component B) in the range from 5 to 40 wt.-%; with the proviso that the weight proportions of components A) and B) add up to 100 wt.-%. A) 75 to 95.5 wt.-% based on the overall weight of the polymer composition of a polymer blend, comprising a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 9:1; and wherein the polymer blend A) is a recycled material; a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 9:1; and wherein the polymer blend A) is a recycled material; B) 4.5 to 25 wt.-% based on the overall weight of the polymer composition of a virgin ethylene alkyl (meth)acrylate having the following properties • MFR 2 (190°C, 2.16 kg) determined according to ISO 1133 in the range from 0.1 to 15 g/10 min; and • an alkyl (meth)acrylate content based on the total weight of component B) in the range from 5 to 40 wt.-%; • MFR 2 (190°C, 2.16 kg) determined according to ISO 1133 in the range from 0.1 to 15 g/10 min; and • an alkyl (meth)acrylate content based on the total weight of component B) in the range from 5 to 40 wt.-%;
A device for gripping or grasping products, said products being in particular in the form of packages, in a preferred manner defined by a corresponding envelope, for example made of a plastic film, or a paper sheet, or other, or made of cardboard, which wraps or contains one or more articles; in particular said articles being articles of the so-called Tissue field and preferably being made of paper material or other material, such as woven fabric or non-woven fabric, and preferentially being in the form of rolls, in particular rolls of toilet paper, of kitchen paper or for another use, or rolls for the treatment of food products, such as rolls of aluminium foil, plastic film, wax paper film, and the like, i.e., said articles being in the form of packaging, in particular packs, packets or other containers, in particular for napkins, handkerchiefs, small towels for hands and face, hand towels, bed sheets, sanitary napkins for personal care; the device comprising support means for means for engaging and holding by suctioning the respective product and being characterized in that said means for engaging and holding by suctioning the respective product define a first and a second surfaces for engaging and holding by suctioning the same product angularly spaced apart by an angle equal to, or substantially equal to, 90°, and in that at the respective surface for engaging and holding by suctioning the same product, corresponding means are provided for the passage of said suctioning flow.
An anti-dandruff composition comprising an effective amount of: - at least one spirofuranone-lactam tetramic acid being a bio-active heterospirocyclic selected from the group comprising pseurotin A, pseurotin A 1 , pseurotin A 2 , pseurotin B, pseurotin C, pseurotin E, pseurotin D, pseurotin F 1 , pseurotin F 2 , asaspirenen, and synerazol, and - at least one biologically derivable meroterpene selected from those having a general structure of formula (I): wherein: R 1 independently represents hydrogen and R 2 independently represents chlorine, or R 1 and R 2 together represent a single bond to form an epoxide ring; R 3 independently represents hydrogen or hydroxyl; R 4 independently represents a hydroxyl, oxygen, or -OC(O)-[CH=CH-] n R 5 group wherein R 5 represents a C 2 -C 4 alcohol or diol, a C 2 -C 4 optionally substituted epoxide, or a carboxyl group; and n represents an integer in the range from 1 to 3. - at least one spirofuranone-lactam tetramic acid being a bio-active heterospirocyclic selected from the group comprising pseurotin A, pseurotin A 1 , pseurotin A 2 , pseurotin B, pseurotin C, pseurotin E, pseurotin D, pseurotin F 1 , pseurotin F 2 , asaspirenen, and synerazol, and - at least one biologically derivable meroterpene selected from those having a general structure of formula (I): R 1 independently represents hydrogen and R 2 independently represents chlorine, or R 1 and R 2 together represent a single bond to form an epoxide ring; R 3 independently represents hydrogen or hydroxyl; R 4 independently represents a hydroxyl, oxygen, or -OC(O)-[CH=CH-] n R 5 group wherein R 5 represents a C 2 -C 4 alcohol or diol, a C 2 -C 4 optionally substituted epoxide, or a carboxyl group; and n represents an integer in the range from 1 to 3.
A method for operating a vehicle comprising: using sensor information to detect and identify a plurality of construction objects (810-890) associated with a construction zone at a location; using the sensor information to detect and identify roadway features at the location; mapping an area of the construction zone including an area along the roadway between two of the plurality of construction objects using the identified plurality of construction objects; classifying, by a processor, from a plurality of classifications comprising active and inactive classifications, an activity type of the construction zone based on differences between: the detected roadway features, and roadway features of the construction zone from stored detailed map information at the location; adding the area of the construction zone and the classification to the stored detailed map information at the location; subsequent to adding the area of the construction zone and the classification to the stored detailed map information, using sensor information to detect and identify a construction object (810-890) at a given location; identifying, from the stored detailed map information, the area of the construction zone and the classification based on the given location; and operating, at the area of the construction zone, a vehicle having an autonomous driving mode using the classification stored in the detailed map information. using sensor information to detect and identify a plurality of construction objects (810-890) associated with a construction zone at a location; using the sensor information to detect and identify roadway features at the location; mapping an area of the construction zone including an area along the roadway between two of the plurality of construction objects using the identified plurality of construction objects; classifying, by a processor, from a plurality of classifications comprising active and inactive classifications, an activity type of the construction zone based on differences between: the detected roadway features, and roadway features of the construction zone from stored detailed map information at the location; the detected roadway features, and roadway features of the construction zone from stored detailed map information at the location; adding the area of the construction zone and the classification to the stored detailed map information at the location; subsequent to adding the area of the construction zone and the classification to the stored detailed map information, using sensor information to detect and identify a construction object (810-890) at a given location; identifying, from the stored detailed map information, the area of the construction zone and the classification based on the given location; and operating, at the area of the construction zone, a vehicle having an autonomous driving mode using the classification stored in the detailed map information.
A method for recognizing forgeries of identification documents containing a facial image with IR-absorbing components, comprising the steps: (i) reading out the IR-absorbing components of the facial image by means of an IR reading device; (ii) determining a number of recognized faces using facial recognition software based on the IR-absorbing components of the facial image that have been read out; and (iii) in the event that the number of recognized faces is greater than 1, generating a check signal. (i) reading out the IR-absorbing components of the facial image by means of an IR reading device; (ii) determining a number of recognized faces using facial recognition software based on the IR-absorbing components of the facial image that have been read out; and (iii) in the event that the number of recognized faces is greater than 1, generating a check signal.
A method for manufacturing a thermal management system for electronics, comprising: at least one vapor chamber that at least partially envelops the electronics ; a working fluid contained within the vapor chamber and used to dissipate heat from at least a part of a heated portion of the electronics; and creating a precision sintered 3D wick structure independently on at least some of the interior of the vapor chamber, wherein the precision sintered 3D wick structure transports the working fluid by capillary action from at least one working fluid receptacle to the at least a part of the heated portion of the electronics, wherein the precision sintered 3D wick structure comprises a plurality of layers of metal build powder particles, sintering a first collection of metal build powder particles from each of a first group of layers from the plurality of layers of metal build powder particles to create a 3D porous zone of the 3D wick structure, and melting a second collection of metal build powder particles from each of a second group of layers from the plurality of layers of metal build powder particles to create a 3D nonporous zone of the 3D wick structure. at least one vapor chamber that at least partially envelops the electronics ; a working fluid contained within the vapor chamber and used to dissipate heat from at least a part of a heated portion of the electronics; and creating a precision sintered 3D wick structure independently on at least some of the interior of the vapor chamber, wherein the precision sintered 3D wick structure transports the working fluid by capillary action from at least one working fluid receptacle to the at least a part of the heated portion of the electronics, wherein the precision sintered 3D wick structure comprises a plurality of layers of metal build powder particles, sintering a first collection of metal build powder particles from each of a first group of layers from the plurality of layers of metal build powder particles to create a 3D porous zone of the 3D wick structure, and melting a second collection of metal build powder particles from each of a second group of layers from the plurality of layers of metal build powder particles to create a 3D nonporous zone of the 3D wick structure.
An antenna structure, comprising: a linear antenna conductor connected to a printed circuit board , wherein the linear antenna conductor hangs off an edge of the printed circuit board ; a parasitic element directly connected to a ground plane of the printed circuit board through a grounded leg , wherein the parasitic element is spaced from and parallel to the linear antenna conductor in a position that is off the edge of the printed circuit board ; and a digital variable capacitor connected between the parasitic element and the printed circuit board , wherein the digital variable capacitor is spaced from the grounded leg , wherein the parasitic element is also connected to the ground plane of the printed circuit board through the digital variable capacitor , and wherein the digital variable capacitor is a MEMS digital variable capacitor. a linear antenna conductor connected to a printed circuit board , wherein the linear antenna conductor hangs off an edge of the printed circuit board ; a parasitic element directly connected to a ground plane of the printed circuit board through a grounded leg , wherein the parasitic element is spaced from and parallel to the linear antenna conductor in a position that is off the edge of the printed circuit board ; and a digital variable capacitor connected between the parasitic element and the printed circuit board , wherein the digital variable capacitor is spaced from the grounded leg , wherein the parasitic element is also connected to the ground plane of the printed circuit board through the digital variable capacitor , and wherein the digital variable capacitor is a MEMS digital variable capacitor.
A refrigerator shelf , comprising: a frame including laterally spaced first and second side members , each defining opposite first and second ends , the first ends of the first and second side members defining side portions of a front edge profile of the refrigerator shelf , and a medial member extending between the first and second side members at respective locations between the first and second ends of the first and second side members , respectively; a first substrate received between the first and second side members , defining a first edge, and moveable along the first and second side members between an extended position with the first edge adjacent to the first ends of the first and second side members and a tucked position with the front edge spaced away from the first ends ; and a trim member extending along the first edge of the first substrate and defining a third portion of the front edge profile that is aligned with the side portions when the first substrate is in the extended position, characterized in that the trim member physically engages with the side portions when the first substrate is in the extended position, wherein for most of the range of placement of the first substrate in the extended position, the initial upward movement of the trim member will force the first substrate rearward due to physically engaging to side portions of the front edge profile that extend upward at acute angles, to bring it into contact with medial member , thereby providing additional resistance to prevent inadvertent upward movement of trim member . a frame including laterally spaced first and second side members , each defining opposite first and second ends , the first ends of the first and second side members defining side portions of a front edge profile of the refrigerator shelf , and a medial member extending between the first and second side members at respective locations between the first and second ends of the first and second side members , respectively; a first substrate received between the first and second side members , defining a first edge, and moveable along the first and second side members between an extended position with the first edge adjacent to the first ends of the first and second side members and a tucked position with the front edge spaced away from the first ends ; and a trim member extending along the first edge of the first substrate and defining a third portion of the front edge profile that is aligned with the side portions when the first substrate is in the extended position, characterized in that the trim member physically engages with the side portions when the first substrate is in the extended position, wherein for most of the range of placement of the first substrate in the extended position, the initial upward movement of the trim member will force the first substrate rearward due to physically engaging to side portions of the front edge profile that extend upward at acute angles, to bring it into contact with medial member , thereby providing additional resistance to prevent inadvertent upward movement of trim member .
A T cell proliferation method, characterized by comprising: step A, culturing a composition containing the T cells, by using a first culture medium which is able to stimulate T cells, so as to stimulate the T cells, wherein the first culture medium comprises interleukin-2 and phosphonic acid compounds, and optionally, also comprises interleukin-15, and vitamin C or a derivative of vitamin C.; and step B, using a second culture medium to culture stimulated T cells, wherein the second culture medium contains interleukin-2, interleukin-15, and vitamin C or a derivative of vitamin C. step A, culturing a composition containing the T cells, by using a first culture medium which is able to stimulate T cells, so as to stimulate the T cells, wherein the first culture medium comprises interleukin-2 and phosphonic acid compounds, and optionally, also comprises interleukin-15, and vitamin C or a derivative of vitamin C.; and step B, using a second culture medium to culture stimulated T cells, wherein the second culture medium contains interleukin-2, interleukin-15, and vitamin C or a derivative of vitamin C.