mhurhangee/ep-ind-claims huggingface dataset:
A stirrer that is configured to rotate in a container to stir liquid in the container, the stirrer comprising a sensor part that is configured to bring a sensor surface (1c, 1d) into contact with the liquid to thereby detect the characteristic of the liquid, and output an electrical signal having a value corresponding to a detected value; a transmission part that is configured to convert the electrical signal to an electromagnetic wave signal or a sound wave signal, and is configured to wirelessly output the electromagnetic wave signal or the sound wave signal; a containing body that has a structure that exposes the sensor surface (1c, 1d), contains the sensor part and the transmission part in an inside of the structure, and prevents the liquid from intruding into the inside, the containing body is configured to be arranged in the container and immersed in the liquid; and close contact means comprising a first magnetic part provided in the containing body, the close contact means being configured to bring a passing portion for the electromagnetic wave signal or the sound wave signal in the containing body into substantially close contact with an inner wall of the container, characterized in that a surface of the containing body is provided with a concave portion, and the sensor surface (1c, 1d is exposed in the concave portion.
An injection device comprising: - a housing, - a dose setting member being operable to set a desired dose of a varying amount to be injected, - a piston rod being adapted to cooperate with a piston so as to cause the set dose to be injected from an ampoule, and - a dose delivering mechanism being adapted to operate the piston rod in such a way that the set dose is injected, the dose delivering mechanism further being adapted to provide an audible feedback signal to a user, wherein first and second parts (28, 29) of the injection device are adapted to perform a relative rotational movement with respect to each other during injection of the set dose, and wherein said relative rotational movement causes at least the two parts (28, 29) of the injection device to abut or engage, said abutment or engagement causing the audible feedback signal to be generated, wherein the audible feedback signal is generated as a result of an abutment between the two parts (28, 29) of the dose delivering mechanism performing a relative rotational movement and the audible feed-back signal is generated by releasing a tension which has previously been introduced in a part of the injection device comprising at least one resilient portion of at least one of the first and second parts (28, 29) performing the relative rotational movement, the release of the tension being caused by the abutment between the two parts (28, 29), characterized in that, the dose delivery mechanism is adapted to provide the audible feedback signal to the user only at the end of injection of the set dose, and the dose delivering mechanism is adapted to be operated by means of a mechanically biased mechanism comprises at least one spring being biased during setting of the set dose and wherein the injection is subsequently performed by releasing the stored energy previously build up in the mechanically biased mechanism and which stored energy will cause the set dose to injected, and - a housing, - a dose setting member being operable to set a desired dose of a varying amount to be injected, - a piston rod being adapted to cooperate with a piston so as to cause the set dose to be injected from an ampoule, and - a dose delivering mechanism being adapted to operate the piston rod in such a way that the set dose is injected, the dose delivering mechanism further being adapted to provide an audible feedback signal to a user, wherein
A polypeptide, having activity of epimerizing glucuronic acid residues of N-acetyl heparosan to iduronic acid residues and/or activity of epimerizing iduronic acid residues of completely desulfated N-acetylated heparin to glucuronic acid residues, selected from the group consisting of the following to: a polypeptide comprising the amino acid sequence or: the amino acid sequence defined by amino acid NOs: 1 to 601 in SEQ ID NO: 2, and the amino acid sequence defined by amino acid NOs: 34 to 601 in SEQ ID NO: 2; a polypeptide comprising the amino acid sequence but which comprises one or 2 to 60 amino acid residues that are substituted, deleted, inserted, and/or added; or a polypeptide comprising the amino acid sequence but which comprises one or 2 to 56 amino acid residues that are substituted, deleted, inserted, and/or added; and a polypeptide comprising the amino acid sequence of a fusion polypeptide formed by adding a peptide tag to the polypeptide selected from the group consisting of and. a polypeptide comprising the amino acid sequence or: the amino acid sequence defined by amino acid NOs: 1 to 601 in SEQ ID NO: 2, and the amino acid sequence defined by amino acid NOs: 34 to 601 in SEQ ID NO: 2; the amino acid sequence defined by amino acid NOs: 1 to 601 in SEQ ID NO: 2, and the amino acid sequence defined by amino acid NOs: 34 to 601 in SEQ ID NO: 2; a polypeptide comprising the amino acid sequence but which comprises one or 2 to 60 amino acid residues that are substituted, deleted, inserted, and/or added; or a polypeptide comprising the amino acid sequence but which comprises one or 2 to 56 amino acid residues that are substituted, deleted, inserted, and/or added; and a polypeptide comprising the amino acid sequence of a fusion polypeptide formed by adding a peptide tag to the polypeptide selected from the group consisting of and.
A pigment dispersant comprising a tri-block copolymer having a polymer chain structure represented by the following general formula I, φ − G p − W q − Y s T wherein - G is a residue of at least one radically polymerizable ethylenically unsaturated monomer selected from a glycidyl (meth)acrylate reacted with a naphthoic acid; - W and Y are residues of at least one radically polymerizable ethylenically unsaturated monomer selected from (meth)acrylic acid alkyl esters; with W and Y being different from one another; - Φ is a hydrophobic residue of or derived from the initiator, and is free of the radically transferable group; - T is or is derived from the radically transferable group of the initiator; - p, q and s represent average numbers of residues occurring in a block of residues; p, q and s are each independently at least 1. - G is a residue of at least one radically polymerizable ethylenically unsaturated monomer selected from a glycidyl (meth)acrylate reacted with a naphthoic acid; - W and Y are residues of at least one radically polymerizable ethylenically unsaturated monomer selected from (meth)acrylic acid alkyl esters; with W and Y being different from one another; - Φ is a hydrophobic residue of or derived from the initiator, and is free of the radically transferable group; - T is or is derived from the radically transferable group of the initiator; - p, q and s represent average numbers of residues occurring in a block of residues; p, q and s are each independently at least 1.
An air-cooled condenser for condensing steam comprising a) one or more roof-shaped heat exchanger assemblies (51,52,53,54,55,56) wherein each heat exchanger assembly comprises a first heat exchanger panel and a second heat exchanger panel that are inclined with respect to a horizontal plane X-Y formed by a horizontal axis X and a longitudinal axis Y perpendicular to the axis X, b) a plenum space located between a top boundary delineated by the one or more roof-shaped heat exchanger assemblies and a bottom boundary delineated by a deck cover positioned parallel with said horizontal plane X-Y, and wherein said deck cover comprises a deck opening for receiving an air-flow, c) a ducted fan for blowing air flow into said plenum space, said ducted fan comprising a fan and a cylindrical duct surrounding said fan, and wherein the ducted fan is configured such that said fan is rotatable around a rotation axis R that is parallel with a vertical axis Z perpendicular to the axes X and Y, and said cylindrical duct has an inner circular diameter ΦF and a corresponding cross sectional area SF, wherein said air-cooled condenser further comprises an air-flow diffuser having an air inlet side connected to an upper side of the cylindrical duct and having an air outlet side coupled with said deck cover such that, when in operation, an air-flow generated by the fan is flowing through the air-flow diffuser before entering the plenum space via said deck opening, and characterized in that said air-flow diffuser has a height H1 measured along said vertical axis Z and an inner cross sectional area S obtained by intersecting said air-flow diffuser with a plane parallel with said horizontal plane X-Y, and wherein said inner cross sectional area S is increasing from a value S1≥SF at said air inlet side to a value S2>S1 at said air outlet side, and wherein 1. 01≤S2/S1≤1.93 and 5≤(ΦF/H1)≤28. a) one or more roof-shaped heat exchanger assemblies (51,52,53,54,55,56) wherein each heat exchanger assembly comprises a first heat exchanger panel and a second heat exchanger panel that are inclined with respect to a horizontal plane X-Y formed by a horizontal axis X and a longitudinal axis Y perpendicular to the axis X, b) a plenum space located between a top boundary delineated by the one or more roof-shaped heat exchanger assemblies and a bottom boundary delineated by a deck cover positioned parallel with said horizontal plane X-Y, and wherein said deck cover comprises a deck opening for receiving an air-flow, c) a ducted fan for blowing air flow into said plenum space, said ducted fan comprising a fan and a cylindrical duct surrounding said fan, and wherein the ducted fan is configured such that said fan is rotatable around a rotation axis R that is parallel with a vertical axis Z perpendicular to the axes X and Y, and said cylindrical duct has an inner circular diameter ΦF and a corresponding cross sectional area SF,
Process for the preparation of aqueous meta-stable o/w emulsions with the ability to invert into w/o emulsions by introduction of mechanical energy, obtainable by the following method: (i) oil components, w/o emulsifiers and optionally oil-soluble actives are mixed at temperatures in the range from 50 to 90° C to form an oil phase I, (ii) anionic surfactants, selected from the group consisting of acyl glutamates, alk(en)yl oligoglycoside carboxylates, alk(en)yl polyalkyleneglycolether citrates and their mixtures, are diluted in water at temperatures in the range from 50 to 90° to form an aqueous phase, and this phase is maintained at these temperatures (iii) phase is added to phase or, alternatively, phase II is added to phase I while maintaining these temperatures in order to obtain an o/w emulsion, (iv) said o/w emulsion is cooled down to room temperature, (v) polymeric stabilisers and optionally water soluble actives are added, and (vi) the final emulsion is homogenised. (i) oil components, w/o emulsifiers and optionally oil-soluble actives are mixed at temperatures in the range from 50 to 90° C to form an oil phase I, (ii) anionic surfactants, selected from the group consisting of acyl glutamates, alk(en)yl oligoglycoside carboxylates, alk(en)yl polyalkyleneglycolether citrates and their mixtures, are diluted in water at temperatures in the range from 50 to 90° to form an aqueous phase, and this phase is maintained at these temperatures (iii) phase is added to phase or, alternatively, phase II is added to phase I while maintaining these temperatures in order to obtain an o/w emulsion, (iv) said o/w emulsion is cooled down to room temperature, (v) polymeric stabilisers and optionally water soluble actives are added, and (vi) the final emulsion is homogenised.
Device for subcutaneous injection of fluid into a patient's skin comprising - a casing which houses - a pump (2,4), - a cannula having a tip for being inserted into the patient's skin, the cannula being fixedly positioned relative to the pump, - means for inserting the cannula into the patient's skin, - a flexible base plate being fixed to the casing and having a prestressed convex position in which the tip of the cannula is concealed and a released flat position in which the tip of the cannula is exposed beyond the base plate, - a mechanism comprising means for holding the base plate in the prestressed convex position and for releasing the base plate to move from its prestressed position to its released flat position, - characterized by - an adhesive layer fixed to the flexible base plate and covering at least the central part of the base plate for adhering the base plate onto the patient's skin, whereby when moving from the prestressed convex position to the released flat position the base plate is pulling the adhered skin against the tip of the cannula. - a casing which houses - a pump (2,4), - a cannula having a tip for being inserted into the patient's skin, the cannula being fixedly positioned relative to the pump, - means for inserting the cannula into the patient's skin, - a flexible base plate being fixed to the casing and having a prestressed convex position in which the tip of the cannula is concealed and a released flat position in which the tip of the cannula is exposed beyond the base plate, - a mechanism comprising means for holding the base plate in the prestressed convex position and for releasing the base plate to move from its prestressed position to its released flat position, - characterized by - an adhesive layer fixed to the flexible base plate and covering at least the central part of the base plate for adhering the base plate onto the patient's skin, whereby when moving from the prestressed convex position to the released flat position the base plate is pulling the adhered skin against the tip of the cannula.
A filter assembly (300;500;700;800) for an enclosure, comprising: an enclosure side (304,504) and an outer side (302;502) opposite from the enclosure side; a first layer (320;520;720;820) which is gas permeable positioned at the outer side of the filter assembly; and an adsorbent layer (310;510;710;810), wherein the_adsorbent layer comprises adsorbent particles and a scrim material holding the adsorbent particles in place, wherein said first layer (320;520;720;820) is positioned on an outer face of said adsorbent layer; and wherein the enclosure side of the filter assembly comprises: an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750,850); a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to a material comprising plastic at the weld area (360;560;760;860); wherein the adsorbent layer (310;510;710;810) comprises the adsorbent particles dispersed in a fine fiber web. an enclosure side (304,504) and an outer side (302;502) opposite from the enclosure side; a first layer (320;520;720;820) which is gas permeable positioned at the outer side of the filter assembly; and an adsorbent layer (310;510;710;810), wherein the_adsorbent layer comprises adsorbent particles and a scrim material holding the adsorbent particles in place, wherein said first layer (320;520;720;820) is positioned on an outer face of said adsorbent layer; and wherein the enclosure side of the filter assembly comprises: an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750,850); a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to a material comprising plastic at the weld area (360;560;760;860); wherein the adsorbent layer (310;510;710;810) comprises the adsorbent particles dispersed in a fine fiber web. an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750,850); a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to a material comprising plastic at the weld area (360;560;760;860); wherein the adsorbent layer (310;510;710;810) comprises the adsorbent particles dispersed in a fine fiber web.
Grey gold alloy, which is nickel-free, cobalt-free, iron-free, silver-free, zirconium-free, niobium-free, chromium-free, indium-free, gallium-free and manganese-free, comprising, expressed in weight percent, the following elements: 75.0 to 76.5% of Au, 15 to 23% of Pd, 1 to 7% of Cu, 0 to 5% of at least one of the alloying elements Ir, Ru, B and Re, the respective percentages of all the elements of the alloy adding up to 100%. 75.0 to 76.5% of Au, 15 to 23% of Pd, 1 to 7% of Cu, 0 to 5% of at least one of the alloying elements Ir, Ru, B and Re, the respective percentages of all the elements of the alloy adding up to 100%.
An optical vehicle laser sensor system for detection of vehicle dynamics parameters, comprising - a laser device which generates at least three spatially separated laser beams (30, 31, 32), so that the three laser beams (30, 31, 32) generate three laser spots (10, 11, 12) on a reference surface placed opposite to the laser device, wherein two pairs of the spots (10,11, 12) are separated along two different lateral directions along the reference surface, - an imaging device comprising at least one matrix sensor with a lens for imaging said laser spots (10,11, 12) on said reference surface, said imaging device being arranged so that said laser spots (10,11,12) on said reference surface are visible within a field of view of said imaging device, whereby the optical axis of said imaging device and the direction of at least one of said laser beams (30, 31, 32) are non-coincident, - a detector for detecting a velocity of said optical vehicle laser sensor system relatively to said reference surface from the signal of said laser beams (30, 31, 32) reflected or scattered back from said reference surface, - a data processing device for detecting the laser spot location within the image data retrieved from said imaging device, and for calculating the orientation of said optical vehicle laser sensor system from the spot locations. - a laser device which generates at least three spatially separated laser beams (30, 31, 32), so that the three laser beams (30, 31, 32) generate three laser spots (10, 11, 12) on a reference surface placed opposite to the laser device, wherein two pairs of the spots (10,11, 12) are separated along two different lateral directions along the reference surface, - an imaging device comprising at least one matrix sensor with a lens for imaging said laser spots (10,11, 12) on said reference surface, said imaging device being arranged so that said laser spots (10,11,12) on said reference surface are visible within a field of view of said imaging device, whereby the optical axis of said imaging device and the direction of at least one of said laser beams (30, 31, 32) are non-coincident, - a detector for detecting a velocity of said optical vehicle laser sensor system relatively to said reference surface from the signal of said laser beams (30, 31, 32) reflected or scattered back from said reference surface, - a data processing device for detecting the laser spot location within the image data retrieved from said imaging device, and for calculating the orientation of said optical vehicle laser sensor system from the spot locations.
An arc welding control method comprising a pulse welding period (Tp) for feeding a welding wire toward a base material at a constant feeding speed, and generating an arc between the base material and the welding wire by alternately supplying a peak current and a base current to the welding wire, the method being characterised by the pulse welding period (Tp) consisting of: a basic unit period (Tpb) being repeated once or a plurality of times, the basic unit period (Tpb) including: a first peak period for supplying a first peak current to the welding wire; a first base period for supplying a base current smaller than the first peak current to the welding wire after the first peak period; one second peak period for supplying a second peak current to the welding wire after alternately repeating the first peak period and the first base period (n - 1) times (n is an integer equal to or larger than 2); and one second base period for supplying the base current to the welding wire after the second peak period, the second peak current being larger than the first peak current, so that droplets are not transferred from the welding wire toward the base material during the first peak current period and the first base current period (Tbl), but are transferred from the welding wire toward the base material once only during the second peak period or the second base period for each cycle of the basic unit period (Tpb) as the pulse welding period. a first peak period for supplying a first peak current to the welding wire; a first base period for supplying a base current smaller than the first peak current to the welding wire after the first peak period; one second peak period for supplying a second peak current to the welding wire after alternately repeating the first peak period and the first base period (n - 1) times (n is an integer equal to or larger than 2); and one second base period for supplying the base current to the welding wire after the second peak period, the second peak current being larger than the first peak current, so that droplets are not transferred from the welding wire toward the base material during the first peak current period and the first base current period (Tbl), but are transferred from the welding wire toward the base material once only during the second peak period or the second base period for each cycle of the basic unit period (Tpb) as the pulse welding period.
A microphone mounting device for mounting a microphone around the mouth of a wearer of an open-face helmet, wherein the mounting device is arranged so as to cover from around the mouth to one or both of the left and right sides of a helmet shell configuring the outmost layer of the open-face helmet, characterized in that the mounting device is formed with a foamed synthetic resin material generating repulsive resilience against deforming stress and having deformation function for the wearer such that the wearer can bend and deform it by hand and it returns to an original shape on hand release by the wearer.
A herbicidal composition comprising: (i) a protoporphyrinogen oxidase inhibiting herbicide selected from the group consisting flumioxazin, sulfentrazone, butafenacil and a diphenyl ether selected from the group consisting of acifluorfen (including aciflurofen-sodium), fomesafen (including fomesafen-sodium), lactofen and oxyfluorfen; or an agronomically acceptable salt of said herbicide; and (ii) a safener of Formula; or an agronomically acceptable salt of said compound, wherein:- R a is methoxy, R b is methyl and R c is hydrogen. (i) a protoporphyrinogen oxidase inhibiting herbicide selected from the group consisting flumioxazin, sulfentrazone, butafenacil and a diphenyl ether selected from the group consisting of acifluorfen (including aciflurofen-sodium), fomesafen (including fomesafen-sodium), lactofen and oxyfluorfen; or an agronomically acceptable salt of said herbicide; and (ii) a safener of Formula; or an agronomically acceptable salt of said compound, wherein:- R a is methoxy, R b is methyl and R c is hydrogen. R a is methoxy, R b is methyl and R c is hydrogen.