mhurhangee/ep-ind-claims huggingface dataset:
An article coated on at least one surface with a coating composition, wherein the coating composition comprises: (a) a polyester polymer derived by esterifying an aryloxy ether polyol derived from reaction between: (i) a polyhydric phenol or a polyphenol and a non-hydroxyl functional cyclic carbonate, or (ii) a monophenol and a hydroxyl functional cyclic carbonate; (b) a crosslinker and (c) an optional catalyst, wherein the surface comprises a food-contact surface and wherein the article comprises a food or beverage can. (a) a polyester polymer derived by esterifying an aryloxy ether polyol derived from reaction between: (i) a polyhydric phenol or a polyphenol and a non-hydroxyl functional cyclic carbonate, or (ii) a monophenol and a hydroxyl functional cyclic carbonate; (i) a polyhydric phenol or a polyphenol and a non-hydroxyl functional cyclic carbonate, or (ii) a monophenol and a hydroxyl functional cyclic carbonate; (b) a crosslinker and (c) an optional catalyst,
A method of controlling transmission powers for transmission of a plurality of channels by a user equipment in a wireless communication system supporting a plurality of component carriers, the method being characterized by: determining whether a sum of simultaneous transmission powers of a physical random access channel (PRACH) on a first timing advance group, TAG, and a physical uplink control channel (PUCCH) or a physical uplink shared channel (PUSCH) on a second TAG exceeds a maximum transmission power configured for the user equipment, and, when the sum of simultaneous transmission powers exceeds the maximum transmission power configured for the user equipment, adjusting a simultaneous transmission power of the PUCCH or a simultaneous transmission power of the PUSCH. determining whether a sum of simultaneous transmission powers of a physical random access channel (PRACH) on a first timing advance group, TAG, and a physical uplink control channel (PUCCH) or a physical uplink shared channel (PUSCH) on a second TAG exceeds a maximum transmission power configured for the user equipment, and, when the sum of simultaneous transmission powers exceeds the maximum transmission power configured for the user equipment, adjusting a simultaneous transmission power of the PUCCH or a simultaneous transmission power of the PUSCH.
A nanoparticle comprising a polymer containing a polyol and a polymer containing a phenylboronic acid, wherein the polymer containing the phenylboronic acid is coupled to the polymer containing the polyol with a reversible covalent linkage, and wherein the nanoparticle is configured to present the polymer containing the phenylboronic acid to an environment external to the nanoparticle, and wherein the polymer containing the polyol comprises one or more of the following structural units of Formula, or wherein A and B are derived from the coupling of A' and B' where A' is independently: or in which n is 1-20; and wherein B' is: or in which q is 1-20; p is 20-200; and L is a leaving group; or wherein the structural unit of formula is: in which n is 1-20; and wherein the polymer containing the phenylboronic acid comprises at least one terminal phenylboronic acid group and has the general formula: wherein: R 3 and R 4 are independently (CH 2 CH 2 O) t, where t is from 2 to 2000, X 1 is -NH-C(=O)-, -S-S-, -C(=O)-NH-, -O-C(=O)- or -C(=O)-O-, Y 1 is a phenyl group, wherein r=1, a=0 and b=1, and wherein functional group 1 and functional group 2 are the same or different and independently comprise -B 2, -OCH 3, -(X 1)-(Y 1)-B 2, -COOH, -NH 2, or -OH. wherein the polymer containing the phenylboronic acid is coupled to the polymer containing the polyol with a reversible covalent linkage, and wherein the nanoparticle is configured to present the polymer containing the phenylboronic acid to an environment external to the nanoparticle, and wherein the polymer containing the polyol comprises one or more of the following structural units of Formula, or wherein A and B are derived from the coupling of A' and B' where A' is independently: or in which n is 1-20; and wherein B' is: or in which q is 1-20; p is 20-200; and L is a leaving group; q is 1-20; p is 20-200; and L is a leaving group; or wherein the structural unit of formula is: in which n is 1-20; and wherein the polymer containing the phenylboronic acid comprises at least one terminal phenylboronic acid group and has the general formula: wherein: R 3 and R 4 are independently (CH 2 CH 2 O) t, where t is from 2 to 2000, X 1 is -NH-C(=O)-, -S-S-, -C(=O)-NH-, -O-C(=O)- or -C(=O)-O-, Y 1 is a phenyl group, wherein r=1, a=0 and b=1, and wherein functional group 1 and functional group 2 are the same or different and independently comprise -B 2, -OCH 3, -(X 1)-(Y 1)-B 2, -COOH, -NH 2, or -OH. R 3 and R 4 are independently (CH 2 CH 2 O) t, where t is from 2 to 2000, X 1 is -NH-C(=O)-, -S-S-, -C(=O)-NH-, -O-C(=O)- or -C(=O)-O-, Y 1 is a phenyl group, wherein r=1, a=0 and b=1, and wherein functional group 1 and functional group 2 are the same or different and independently comprise -B 2, -OCH 3, -(X 1)-(Y 1)-B 2, -COOH, -NH 2, or -OH.
Refractory ceramic gas purging element, comprising the following features: a) the gas purging element has a refractory ceramic body, through which a gas can flow in an axial direction (A-A) of the gas purging element, between its first end and its second end, b) a chamber is arranged at the first end of the refractory ceramic body, which chamber extends over at least 50% of the cross section of the refractory ceramic body at its first end, c) a gas feeding line enters into said chamber, at a distance to said refractory ceramic body, d) at a section towards the refractory ceramic body the chamber is at least partially permeable to gas, e) in the chamber at least one plate is arranged, which is freely moveable in the axial (A-A) direction of the gas purging element between a first end position, being offset to the refractory ceramic body, and a second end position, being adjacent but at a distance to a section of the refractory ceramic body which is permeable to gas, wherein the second end position is defined by one or more stoppers, f) the plate is dimensioned, shaped and placed in the chamber in such a way, that a gas flow from the gas feeding line through said chamber up to the first end of the refractory ceramic body is even secured when the plate is in its second end position. a) the gas purging element has a refractory ceramic body, through which a gas can flow in an axial direction (A-A) of the gas purging element, between its first end and its second end, b) a chamber is arranged at the first end of the refractory ceramic body, which chamber extends over at least 50% of the cross section of the refractory ceramic body at its first end, c) a gas feeding line enters into said chamber, at a distance to said refractory ceramic body, d) at a section towards the refractory ceramic body the chamber is at least partially permeable to gas, e) in the chamber at least one plate is arranged, which is freely moveable in the axial (A-A) direction of the gas purging element between a first end position, being offset to the refractory ceramic body, and a second end position, being adjacent but at a distance to a section of the refractory ceramic body which is permeable to gas, wherein the second end position is defined by one or more stoppers, f) the plate is dimensioned, shaped and placed in the chamber in such a way, that a gas flow from the gas feeding line through said chamber up to the first end of the refractory ceramic body is even secured when the plate is in its second end position.
A method of reducing silica recession, comprising: exposing a silicon-containing ceramic or silicon-containing ceramic composite to a high temperature combustion gas environment; and contacting a target surface of the silicon-containing ceramic or silicon-containing ceramic composite with a dehumidified gas mixture, thereby reducing silica recession of the target surface, wherein the dehumidified gas mixture comprises compressed air treated with a moisture removal agent effective to remove moisture from the compressed air. exposing a silicon-containing ceramic or silicon-containing ceramic composite to a high temperature combustion gas environment; and contacting a target surface of the silicon-containing ceramic or silicon-containing ceramic composite with a dehumidified gas mixture, thereby reducing silica recession of the target surface, wherein the dehumidified gas mixture comprises compressed air treated with a moisture removal agent effective to remove moisture from the compressed air.
A high-temperature sintered flux for submerged arc welding, comprising: F: 2 to 22% by mass, as determined in terms of CaF 2 by analysis with the method defined by JIS Z3352:2010; MgO: 8 to 28% by mass; a total of at least one or more of Na in terms of Na 2 O and K in terms of K 2 O: 0.5 to 6.5% by mass; Mn: 2 to 22% by mass, as determined in terms of MnO by analysis with the method defined by JIS Z3352:2010; Fe: 0.5 to 6.5% by mass, as determined in terms of FeO by analysis with the method defined by JIS Z3352:2010; SiO 2:12 to 32% by mass; Al 2 O 3: 16 to 36% by mass; ZrO 2: 0.4 to 10% by mass; water-soluble SiO 2:less than 1 % by mass including 0% by mass, and optionally, one or more of: CaO as a corresponding value: 18% by mass or less, TiO 2: 6% by mass or less, and B 2 O 3: 3% by mass or less, wherein the water-soluble SiO 2 content in the flux is determined by the method described in the description, and the content of each of the other components in the flux is its content relative to the entire flux, wherein the flux for submerged arc welding satisfies the following numerical expression, where [Al 2 O 3] is the Al 2 O 3 content, [TiO 2] is the TiO 2 content, and [ZrO 2] is the ZrO 2 content. [Equation 1] 0.01 ≦ Zr O 2 Al 2 O 3 + Ti O 2 + Zr O 2 ≦ 0.38 F: 2 to 22% by mass, as determined in terms of CaF 2 by analysis with the method defined by JIS Z3352:2010; MgO: 8 to 28% by mass; a total of at least one or more of Na in terms of Na 2 O and K in terms of K 2 O: 0.5 to 6.5% by mass; Mn: 2 to 22% by mass, as determined in terms of MnO by analysis with the method defined by JIS Z3352:2010; Fe: 0.5 to 6.5% by mass, as determined in terms of FeO by analysis with the method defined by JIS Z3352:2010; SiO 2:12 to 32% by mass; Al 2 O 3: 16 to 36% by mass; ZrO 2: 0.4 to 10% by mass; water-soluble SiO 2:less than 1 % by mass including 0% by mass, and optionally, one or more of: CaO as a corresponding value: 18% by mass or less, TiO 2: 6% by mass or less, and B 2 O 3: 3% by mass or less, CaO as a corresponding value: 18% by mass or less, TiO 2: 6% by mass or less, and B 2 O 3: 3% by mass or less, wherein the water-soluble SiO 2 content in the flux is determined by the method described in the description, and the content of each of the other components in the flux is its content relative to the entire flux, wherein the flux for submerged arc welding satisfies the following numerical expression, where [Al 2 O 3] is the Al 2 O 3 content, [TiO 2] is the TiO 2 content, and [ZrO 2] is the ZrO 2 content.
Segment for a claw pole stator (1, 29), wherein the segment extends starting from an inner circumference surface along a radial direction to an outer circumference surface and is delimited in a circumference direction by a first side surface and a second side surface and delimited in an axial direction by a first end surface and a second end surface; the segment can be connected by means of the side surfaces (8, 9) to at least one other segment; segments that can be positioned adjacent to each other contact each other by means of a first contact surface of the first side surface or by means of a second contact surface of the second side surface; and the contact surfaces (13, 14) are shaped so that by means of the contact surfaces (13, 14), a connection that is form-fitting in the circumference direction can be formed with a complementarily shaped contact surface (14, 13) of a segment that can be adjacently positioned; wherein the segment is manufactured powder metallurgically by means of pressing and heat treatment; wherein at least one of the contact surfaces (13, 14) between a first radius and a second radius extends along the radial direction in meandering fashion; wherein the at least one contact surface (13, 14) has a minimum curvature radius of at least 1 mm [millimeter] along the meandering shape.
A hearing device comprising an input unit for receiving an acoustic signal from a user's surroundings and providing a corresponding audio signal, and an output unit receiving said audio signal and providing an audible signal to the user, where the input and/or output unit(s) comprises a sound port which are exposed to the exterior and/or an interior environment of the hearing device, the hearing device further comprising a barrier element configured for protecting said input and/or output unit from substances of said exterior and/or interior environment, said barrier element having a base part and a neck part, said neck part protruding from said base part, and said base part and neck part forming an inner channel of said barrier element, wherein said inner channel of the barrier element is arranged to substantially surround a circumferential edge of at least a part said sound port while allowing for sound to pass through said inner channel to said sound port, and wherein said neck part is substantially angled in relation to a longitudinal centerline of said inner channel so as to form angled sides of the neck part towards said base part allowing a migration of said substances from said neck part to said base part, characterised in that a top shell of said hearing aid is provided with fastening elements, such as flanges or ribs extending along an inner side of the top shell, so as to support said barrier element.
A puncture device for transferring an active ingredient into a body through a skin by piercing the skin with a microneedle, the puncture device comprising: a tubular housing; a piston having a piston body which is slidably arranged within the housing and has a main surface intersecting a sliding direction, and a plurality of microneedles which are arranged on the main surface side; and a conical coil spring arranged within the housing and providing the piston with a biasing force, wherein the ratio of the weight of the piston body to the total weight of the piston body, the plurality of microneedles, and the conical coil spring is less than 50%. a tubular housing; a piston having a piston body which is slidably arranged within the housing and has a main surface intersecting a sliding direction, and a plurality of microneedles which are arranged on the main surface side; and a conical coil spring arranged within the housing and providing the piston with a biasing force, wherein the ratio of the weight of the piston body to the total weight of the piston body, the plurality of microneedles, and the conical coil spring is less than 50%.
An implant for surgical use in human beings or vertebral animals for replacing, partially replacing, or strengthening a joint, comprising a composite which comprises - a first portion with the shape of a shell having an inner side and an outer side, which is defined by an elastic pressed shaped body having an initial spring constant from 50 to 3000 N/mm and made from a rolled-up or folded mesh of wire, wherein the pressed shaped body substantially provides the dynamic properties of the implant; and - a second portion with the shape of a shell having an inner side and an outer side; wherein the first portion is partially embedded in the second portion; wherein the second portion is arranged at a side of the implant which defines a sliding surface for a movement in a joint. - a first portion with the shape of a shell having an inner side and an outer side, which is defined by an elastic pressed shaped body having an initial spring constant from 50 to 3000 N/mm and made from a rolled-up or folded mesh of wire, wherein the pressed shaped body substantially provides the dynamic properties of the implant; and - a second portion with the shape of a shell having an inner side and an outer side; wherein the first portion is partially embedded in the second portion;
A food product comprising - a raising agent; - a moisture content below 10% by weight of the food product; - a hydrolyzed whole grain composition; - an alpha-amylase or fragment thereof, which alpha-amylase or fragment thereof shows no hydrolytic activity towards dietary fibres when in the active state; and - a protease or fragments thereof, at a concentration of 0.001-5% by weight of the total whole grain content, which protease or fragment thereof shows no hydrolytic activity towards dietary fibres when in the active state. - a raising agent; - a moisture content below 10% by weight of the food product; - a hydrolyzed whole grain composition; - an alpha-amylase or fragment thereof, which alpha-amylase or fragment thereof shows no hydrolytic activity towards dietary fibres when in the active state; and - a protease or fragments thereof, at a concentration of 0.001-5% by weight of the total whole grain content, which protease or fragment thereof shows no hydrolytic activity towards dietary fibres when in the active state.
An elevator system comprising: a tower having an upper fixed portion proximate a top of said tower and a lower fixed portion proximate a bottom of said tower; a length of guide wire tensioned between the upper fixed portion and the lower fixed portion; a wirefix removably coupled between the length of guide wire between the upper fixed portion and the lower fixed portion and a fixed portion of said tower, said wirefix having a channel though which said guide wire passes wherein said wirefix may be decoupled from said guide wire without the need for de-tensioning the guide wire, characterized in that a channel portion of the wirefix (10, 30) is formed by a single piece formed by a spring having windings, said windings having a pitch capable of accepting the tensioned guide wire between the windings. a tower having an upper fixed portion proximate a top of said tower and a lower fixed portion proximate a bottom of said tower; a length of guide wire tensioned between the upper fixed portion and the lower fixed portion; a wirefix removably coupled between the length of guide wire between the upper fixed portion and the lower fixed portion and a fixed portion of said tower, said wirefix having a channel though which said guide wire passes wherein said wirefix may be decoupled from said guide wire without the need for de-tensioning the guide wire,
Mobile home having a battery (6, 7, 8) and an axle, characterized in that the battery (6, 8) is configured to supply electric current to a travel drive of a towing vehicle and/or an optional travel drive of the mobile home during travel with a trailer in road traffic and is displaceably supported in the longitudinal direction of the mobile home and can be displaced by an adjustment apparatus.
A method for drying a ceramic structure comprising: providing microwave radiation from a microwave generating source; providing a ceramic honeycomb structure having a middle portion and at least one end (13, 16) and providing a second ceramic honeycomb structure having at least one end (13, 16); exposing the ceramic honeycomb structure to the microwave radiation; characterized in: shielding the at least one end (13, 16) of the ceramic honeycomb structure from directly receiving the microwave radiation and such that the radiation absorbed by the middle portion is within the range of from 0% to 60% greater than the radiation absorbed by the at least one end (13, 16), wherein the shielding step includes spacing the at least one end (13, 16) of the first honeycomb structure from the at least one end (13, 16) of the second honeycomb structure at a distance of less than or equal to one quarter of a wavelength of the microwave radiation, thereby shielding the at least one end (13, 16) of the first ceramic honeycomb structure and the at least one end (13, 16) of the second honeycomb structure. providing microwave radiation from a microwave generating source; providing a ceramic honeycomb structure having a middle portion and at least one end (13, 16) and providing a second ceramic honeycomb structure having at least one end (13, 16); exposing the ceramic honeycomb structure to the microwave radiation; characterized in: shielding the at least one end (13, 16) of the ceramic honeycomb structure from directly receiving the microwave radiation and such that the radiation absorbed by the middle portion is within the range of from 0% to 60% greater than the radiation absorbed by the at least one end (13, 16), wherein the shielding step includes spacing the at least one end (13, 16) of the first honeycomb structure from the at least one end (13, 16) of the second honeycomb structure at a distance of less than or equal to one quarter of a wavelength of the microwave radiation, thereby shielding the at least one end (13, 16) of the first ceramic honeycomb structure and the at least one end (13, 16) of the second honeycomb structure. shielding the at least one end (13, 16) of the ceramic honeycomb structure from directly receiving the microwave radiation and such that the radiation absorbed by the middle portion is within the range of from 0% to 60% greater than the radiation absorbed by the at least one end (13, 16), wherein the shielding step includes spacing the at least one end (13, 16) of the first honeycomb structure from the at least one end (13, 16) of the second honeycomb structure at a distance of less than or equal to one quarter of a wavelength of the microwave radiation, thereby shielding the at least one end (13, 16) of the first ceramic honeycomb structure and the at least one end (13, 16) of the second honeycomb structure.
Nutraceutical compound for use in the treatment of excess weight and moderate hypercholesterolemia / hyperglycemia in a patient in need thereof, characterised in that it comprises: Berberine, Monacolin K, 1-deoxynojirimycin. wherein said Berberine is present in weight between 40 g and 50 g per 100 g of nutraceutical compound, Monacolin K is present in weight between 0.1 g and 0.5 g per 100 g of nutraceutical compound and DNJ is present in weight between 0.2 g and 0.5 g. per 100 g of nutraceutical compound.