mhurhangee/ep-ind-claims huggingface dataset:
A damper, comprising: a housing wherein an opening is formed; a cap closing the opening of the housing; a movable member movably housed between the housing and the cap; and a gel-like attenuating medium filled in a movable area of the movable member inside the housing, wherein the housing and the cap are physical objects, the attenuating medium is filled between the physical objects and the movable member, and the housing and the cap are formed by a same principal material, said damper being characterized by further comprising an enclosure portion including a bend structure bending a plurality of times along an up-and-down direction and located outwardly in a radial direction in the housing from a torque generating area, and the enclosure portion is formed annularly along a peripheral wall portion viewed from an upper face side of the cap. a housing wherein an opening is formed; a cap closing the opening of the housing; a movable member movably housed between the housing and the cap; and a gel-like attenuating medium filled in a movable area of the movable member inside the housing, wherein the housing and the cap are physical objects, the attenuating medium is filled between the physical objects and the movable member, and the housing and the cap are formed by a same principal material, said damper being characterized by further comprising an enclosure portion including a bend structure bending a plurality of times along an up-and-down direction and located outwardly in a radial direction in the housing from a torque generating area, and the enclosure portion is formed annularly along a peripheral wall portion viewed from an upper face side of the cap.
A cosmetic composition comprising a first emulsion and a second emulsion and optionally one or more additional emulsions, each of said two or more emulsions is discrete and comprising an inner phase and an outer phase, each of said two or more emulsions is a water-in-silicone emulsion, each of said two or more emulsions is in physical contact with at least one other emulsion, characterized by the following features: the inner phase of said first emulsion, and optionally the inner phase of said one or more additional emulsions, comprises from about 25 to about 35 % water, from about 25 to about 40 % humectant, from about 0.01 to about 10 % skin functioning / anti-aging ingredients such as alpha-hydroxy acids and/or water-soluble skin lighteners, from about 0.001 to about 2.0 % colorants, and about 0.1 to about 5.0 % mica. the inner phase of said first emulsion, and optionally the inner phase of said one or more additional emulsions, comprises from about 25 to about 35 % water, from about 25 to about 40 % humectant, from about 0.01 to about 10 % skin functioning / anti-aging ingredients such as alpha-hydroxy acids and/or water-soluble skin lighteners, from about 0.001 to about 2.0 % colorants, and about 0.1 to about 5.0 % mica.
A sensor assembly with at least one sensor for detecting objects in a monitoring area, wherein the monitoring area is subdivided into grid fields and wherein at least one protective field is defined within the monitoring area, wherein a grid field is marked with the sensor when an object is engaged, and the protective field is monitored with the sensor, and wherein a control unit is provided, in which an evaluation of marking information of raster fields and a protective field evaluation is carried out, wherein a safety function is triggered in the control unit if a safety-critical object intervention is registered within a protective field and at least one marked raster field within this protective field, characterised in that the protective field evaluation is carried out independently of the evaluation of marking information of raster fields.
A drilling mud treatment system, comprising means for coagulating drilling mud to obtain a coagulated drilling mud, as well as a drilling mud treatment unit comprising: - a primary duct for feeding said previously coagulated drilling mud; - an in-line flocculation system for flocculating the previously coagulated drilling mud flowing in the primary duct; and - at least one hydrocyclone fed by the primary duct and arranged downstream from the flocculation system, the hydrocyclone having an overflow orifice for receiving a liquid product resulting from treatment of the drilling mud and an underflow orifice for receiving a solid product resulting from treatment of the drilling mud, the overflow orifice presenting an overflow diameter (Do) and the underflow orifice presenting an underflow diameter (Du), and the underflow diameter (Du) being greater than the overflow diameter (Do), with a ratio greater than 1.1 between the underflow diameter (Du) and the overflow diameter (Do). - a primary duct for feeding said previously coagulated drilling mud; - an in-line flocculation system for flocculating the previously coagulated drilling mud flowing in the primary duct; and - at least one hydrocyclone fed by the primary duct and arranged downstream from the flocculation system, the hydrocyclone having an overflow orifice for receiving a liquid product resulting from treatment of the drilling mud and an underflow orifice for receiving a solid product resulting from treatment of the drilling mud, the overflow orifice presenting an overflow diameter (Do) and the underflow orifice presenting an underflow diameter (Du), and the underflow diameter (Du) being greater than the overflow diameter (Do), with a ratio greater than 1.1 between the underflow diameter (Du) and the overflow diameter (Do).
Process for treating a bearing component composed of steel, wherein - the bearing component is subjected to a bluing treatment, - the blued bearing component is subjected to a thermal after-treatment in which it is stored at a hold temperature for a hold time, - the hold time is at least 30 minutes, characterized in that - the hold temperature is above 150°C, - the bearing component is, immediately after the bluing treatment and before the bearing component has cooled to a minimum temperature of 50°C, wetted with a liquid protective medium which is stable up to a temperature of at least 200°C and/or is subjected to the thermal after-treatment. - the bearing component is subjected to a bluing treatment, - the blued bearing component is subjected to a thermal after-treatment in which it is stored at a hold temperature for a hold time, - the hold time is at least 30 minutes, - the hold temperature is above 150°C, - the bearing component is, immediately after the bluing treatment and before the bearing component has cooled to a minimum temperature of 50°C, wetted with a liquid protective medium which is stable up to a temperature of at least 200°C and/or is subjected to the thermal after-treatment.
Device for drying wetted material, wherein the device comprises at least one kiln for accommodating the wetted material, a washing column, a heat pump, and a radiator, wherein a device air inlet is fluidly connected with a radiator air inlet; a radiator air outlet is fluidly connected with a kiln air inlet; a kiln air outlet is fluidly connected with a washing column air inlet; a washing column air outlet is fluidly connected with a device air outlet; a washing column water outlet is fluidly connected with a first heat pump water inlet and a first heat pump water outlet is fluidly connected with a washing column water inlet; characterized in that a second heat pump water outlet is fluidly connected with a radiator water inlet and a radiator water outlet is fluidly connected with a second heat pump water inlet. a device air inlet is fluidly connected with a radiator air inlet; a radiator air outlet is fluidly connected with a kiln air inlet; a kiln air outlet is fluidly connected with a washing column air inlet; a washing column air outlet is fluidly connected with a device air outlet; a washing column water outlet is fluidly connected with a first heat pump water inlet and a first heat pump water outlet is fluidly connected with a washing column water inlet; characterized in that a second heat pump water outlet is fluidly connected with a radiator water inlet and a radiator water outlet is fluidly connected with a second heat pump water inlet.
A friction material comprising a fiber base material, a friction modifier and a binder, wherein a content of copper is 0.5% by mass or less in terms of copper element, a content of the binder is 10% by mass or more, and the friction material contains calcium hydroxide and zinc and has pH of 11.7 or more, wherein a content of the zinc is from 1% by mass to 5% by mass.
A formation process of a pattern characterized in that a first pattern is printed on a blanket (1A, 1B) having a surface comprising polydimethylsiloxane using one of: an electroconductive paste, an insulation paste, or a semiconductor paste by a screen printing process, and then a printing object (10A, 10B) is placed on the blanket (1A, 1B), on which the first pattern has been printed, a second pattern is additionally printed on an surface of the printing object (10A, 10B) by a screen printing process opposite to a surface facing to the blanket (1A, 1B), and then the printing object (10A, 10B) is released from the blanket (1A, 1B)so as to transfer the first pattern to the printing object (10A, 10B).
A method for controlling transmission signal power of a mobile unit (16, 18) in communications with at least two cell-site stations (12, 14) by way of information carrying spread spectrum modulated signals, said mobile unit (16, 18) having an antenna coupled to a transmitter (76, 80, 84) and a receiver (72, 74), said transmitter for generating and transmitting an information carrying spread spectrum modulated signal modulated by a mobile user input information signal, said receiver for receiving information carrying spread spectrum modulated signals from said at least two of said cell-site stations (12, 14) and spread spectrum processing said received information carrying spread spectrum modulated signals so as to recover a mobile user output information signal intended for a user of said mobile unit (16, 18), said method comprising the steps of: measuring combined signal power in contemporaneously received information carrying spread spectrum modulated signals by said mobile unit (16, 18); varying transmitter signal power of said mobile unit (16, 18) in opposite correspondence to variations in measured signal power about a predetermined power level; receiving at said mobile unit (16, 18) power adjustment commands from each of said at least two cell-site stations (12, 14); and further varying transmitter signal power of said mobile unit (16, 18) in correspondence to said received power adjustment commands by decreasing transmitter signal power when at least one of said at least two cell-site station transmitted power adjustment commands as received at said mobile unit (16, 18) is indicative of a decrease in transmitter signal power, and increasing transmitter signal power when all of said at least two cell-site transmitted power adjustment commands as received at said mobile unit (16, 18) are indicative of an increase in transmitter signal power. measuring combined signal power in contemporaneously received information carrying spread spectrum modulated signals by said mobile unit (16, 18); varying transmitter signal power of said mobile unit (16, 18) in opposite correspondence to variations in measured signal power about a predetermined power level; receiving at said mobile unit (16, 18) power adjustment commands from each of said at least two cell-site stations (12, 14); and further varying transmitter signal power of said mobile unit (16, 18) in correspondence to said received power adjustment commands by decreasing transmitter signal power when at least one of said at least two cell-site station transmitted power adjustment commands as received at said mobile unit (16, 18) is indicative of a decrease in transmitter signal power, and increasing transmitter signal power when all of said at least two cell-site transmitted power adjustment commands as received at said mobile unit (16, 18) are indicative of an increase in transmitter signal power.
A glucagon-like peptide 2 (GLP-2) analogue represented by general Formula II: wherein: R 1 is hydrogen, C 1-4 alkyl (e.g. methyl), acetyl, formyl, benzoyl or trifluoroacetyl X2 is Gly, Ala or Sar X3 is Glu or Asp X5 is Ser or Thr X6 is Phe or Pro X7 is Ser or Thr X8 is Asp or Ser X9 is Glu or Asp X10 is Met, Leu, Nle or an oxidatively stable Met-replacement amino acid X12 is Thr or Lys X13 is Ile, Glu or Gln X14 is Leu, Met or Nle X15 is Asp or Glu X17 is Leu or Glu X18 is Ala or Aib X19 is Ala or Thr X20 is Ala or Ser X21 is Asp or Ile X24 is Ala or Ser X28 is Ala or Ser X31 is Pro, Ile or deleted X32 is Thr or deleted X33 is Asp, Asn or deleted R 2 is NH 2 or OH; Z 1 and Z 2 are independently absent or a peptide sequence of 1-10 amino acid units selected from the group consisting of Ala, Leu, Ser, Thr, Tyr, Asn, Gln, Asp, Glu, Lys, Arg, His, Met and Orn; or a pharmaceutically acceptable salt thereof; wherein the GLP-2 analogue has at least 60% amino acid sequence identity to wild-type GLP-2 and has preferential growth promoting activity for the small intestine over the colon. R 1 is hydrogen, C 1-4 alkyl (e.g. methyl), acetyl, formyl, benzoyl or trifluoroacetyl X2 is Gly, Ala or Sar X3 is Glu or Asp X5 is Ser or Thr X6 is Phe or Pro X7 is Ser or Thr X8 is Asp or Ser X9 is Glu or Asp X10 is Met, Leu, Nle or an oxidatively stable Met-replacement amino acid X12 is Thr or Lys X13 is Ile, Glu or Gln X14 is Leu, Met or Nle X15 is Asp or Glu X17 is Leu or Glu X18 is Ala or Aib X19 is Ala or Thr X20 is Ala or Ser X21 is Asp or Ile X24 is Ala or Ser X28 is Ala or Ser X31 is Pro, Ile or deleted X32 is Thr or deleted X33 is Asp, Asn or deleted R 2 is NH 2 or OH; Z 1 and Z 2 are independently absent or a peptide sequence of 1-10 amino acid units selected from the group consisting of Ala, Leu, Ser, Thr, Tyr, Asn, Gln, Asp, Glu, Lys, Arg, His, Met and Orn; or a pharmaceutically acceptable salt thereof; wherein the GLP-2 analogue has at least 60% amino acid sequence identity to wild-type GLP-2 and has preferential growth promoting activity for the small intestine over the colon.
A MEMS acoustic transducer comprising: a substrate of semiconductor material, having a back surface and a front surface opposite with respect to a vertical direction (z); a first cavity made within the substrate, which extends from the back surface to the front surface; a membrane, which is arranged at the upper surface, suspended above the first cavity and anchored along a perimeter thereof to the substrate; and a combfingered electrode arrangement, including a number of mobile electrodes coupled to the membrane and a number of fixed electrodes coupled to the substrate and facing the mobile electrodes for forming a sensing capacitor, a deformation of the membrane as a result of incident acoustic pressure waves being designed to cause a capacitive variation (ΔC) of said sensing capacitor, wherein said combfingered electrode arrangement lies vertically with respect to the membrane and extends parallel thereto; characterized in that each of said mobile electrodes has a coupling portion directly coupled to said membrane and a main portion carried by said coupling portion in cantilever fashion above said membrane; and wherein said fixed electrodes are arranged in cantilever fashion above the membrane facing, and parallel to, said mobile electrodes, in the resting condition. a substrate of semiconductor material, having a back surface and a front surface opposite with respect to a vertical direction (z); a first cavity made within the substrate, which extends from the back surface to the front surface; a membrane, which is arranged at the upper surface, suspended above the first cavity and anchored along a perimeter thereof to the substrate; and a combfingered electrode arrangement, including a number of mobile electrodes coupled to the membrane and a number of fixed electrodes coupled to the substrate and facing the mobile electrodes for forming a sensing capacitor, a deformation of the membrane as a result of incident acoustic pressure waves being designed to cause a capacitive variation (ΔC) of said sensing capacitor, wherein said combfingered electrode arrangement lies vertically with respect to the membrane and extends parallel thereto; characterized in that each of said mobile electrodes has a coupling portion directly coupled to said membrane and a main portion carried by said coupling portion in cantilever fashion above said membrane; and wherein said fixed electrodes are arranged in cantilever fashion above the membrane facing, and parallel to, said mobile electrodes, in the resting condition.
A suction-cup pick-up assembly comprising at least one suction-cup pick-up device comprising, in turn, a tubular support body; an elongated tubular stem, which has a longitudinal axis, is engaged in the tubular support body in a sliding manner and is connected to a pneumatic suction device; a suction cup, which is fixed to a free end of the tubular stem; and a shutter, which is engaged in the tubular stem in a sliding manner and is movable parallel to the longitudinal axis due to the thrust of a panel to be picked up in order to connect the suction cup to the pneumatic suction device; and the suction-cup pick-up device further comprises a detection device to detect the axial position of the shutter along the tubular support body; the detection device comprising a reference element mounted on the shutter and at least one detector element (16, 17, 18) mounted on the tubular support body in order to interact with the reference element and detect the axial position of the shutter.
Profile member to connect a vehicle window to a water gutter, having a first segment affixable to the vehicle window, having a second segment having or forming a detent cavity to detachably affix the water gutter, in which case the water gutter has a rib affixable in the detent cavity by frictional and/or positive engagement, and having at least one sealing member which can be fitted in between the bottom edge of the vehicle window and the top edge of the water gutter and which, when the water gutter is in a fitted position, creates a substantially smooth and planarly flush transition between the vehicle window and the water gutter, there being formed between the first segment and the second segment of the profile member a supporting rib which supports the at least one sealing member, the detent cavity being formed by a resilient limb and the supporting rib, with the supporting rib and the free end of the resilient limb defining an aperture for engagement of the detent cavity, there being provided at least one detent element, arranged within the detent cavity, which can be brought into frictional and/or positive engagement with the rib of the water gutter, the insertion of the rib of the water gutter into the detent cavity in a first direction being facilitated, but the extraction of the rib from the detent cavity in the opposite direction on the other hand being made difficult, characterised in that the at least one detent element is in rib form and is arranged at an acute angle (alpha) to the direction (R1, R2), and in that the at least one detent element forms a barb.
A brake controller, comprising: a DC link for supplying power, said DC link including a positive DC link rail and a negative DC link rail; output terminals (3A, 3B; 4A, 4B) for coupling a magnetizing coil (5', 6') of an electromagnetic brake to the brake controller; a current path established between said DC link and said output terminals (3A, 3B; 4A, 4B) for conducting DC link power to said magnetizing coil (5', 6'); characterized in that the brake controller comprises: two solid-state switches (Q1, Q2; Q3, Q4) fitted into the current path, said solid state switches (Q1, Q2; Q3, Q4) are configured to adjust output terminal voltage (U BR1, U BR2) by modulating the DC link voltage (U DC); and a control circuit coupled to the control poles of the solid-state switches (Q1, Q2; Q3, Q4) and configured to apply a modulation (M Q1, M Q2; M Q3, M Q4) alternately to the solid-state switches (Q1, Q2; Q3, Q4), wherein the control circuit is configured to control one of the solid-state switches (Q1, Q2; Q3, Q4) to conduct continuously (CC Q1, CC Q2, CC Q3, CC Q4) while the other (Q1, Q2; Q3, Q4) is modulating. a DC link for supplying power, said DC link including a positive DC link rail and a negative DC link rail; output terminals (3A, 3B; 4A, 4B) for coupling a magnetizing coil (5', 6') of an electromagnetic brake to the brake controller; a current path established between said DC link and said output terminals (3A, 3B; 4A, 4B) for conducting DC link power to said magnetizing coil (5', 6'); two solid-state switches (Q1, Q2; Q3, Q4) fitted into the current path, said solid state switches (Q1, Q2; Q3, Q4) are configured to adjust output terminal voltage (U BR1, U BR2) by modulating the DC link voltage (U DC); and a control circuit coupled to the control poles of the solid-state switches (Q1, Q2; Q3, Q4) and configured to apply a modulation (M Q1, M Q2; M Q3, M Q4) alternately to the solid-state switches (Q1, Q2; Q3, Q4), wherein the control circuit is configured to control one of the solid-state switches (Q1, Q2; Q3, Q4) to conduct continuously (CC Q1, CC Q2, CC Q3, CC Q4) while the other (Q1, Q2; Q3, Q4) is modulating.
A method of screening for a colorectal neoplasm in a sample obtained from a subject, the method comprising: 1) assaying a methylation state of a marker in a sample obtained from a subject; and 2) identifying the subject as having a neoplasm when the methylation state of the marker comprises an increased methylation relative to the normal methylation state of that marker, wherein the marker comprises a base in a differentially methylated region and wherein the DMR is PPP2R5C. 1) assaying a methylation state of a marker in a sample obtained from a subject; and 2) identifying the subject as having a neoplasm when the methylation state of the marker comprises an increased methylation relative to the normal methylation state of that marker,
A process for the preparation of metal nanoparticles comprising the steps of: a) preparing an aqueous solution of metal salt by dissolving the metal salt in a polar solvent, and wherein the metal salt is selected from the group consisting of AuCl 3, AgCl, HAuCl 4, RuCl 3, H 2 PtCl 6, PdCl 2, CuCl 2, and PtCl 4. b) stirring and dissolving LiBH 4 in the solution obtained in step (a) for a period in the range of 1 to 15 minutes at a temperature in the range of 25 to 35°C to obtain metal nanoparticles, and wherein the LiBH 4 molar concentration ranges from 0.17mM to 10.56mM. a) preparing an aqueous solution of metal salt by dissolving the metal salt in a polar solvent, and wherein the metal salt is selected from the group consisting of AuCl 3, AgCl, HAuCl 4, RuCl 3, H 2 PtCl 6, PdCl 2, CuCl 2, and PtCl 4. b) stirring and dissolving LiBH 4 in the solution obtained in step (a) for a period in the range of 1 to 15 minutes at a temperature in the range of 25 to 35°C to obtain metal nanoparticles, and wherein the LiBH 4 molar concentration ranges from 0.17mM to 10.56mM.