mhurhangee/ep-ind-claims huggingface dataset:
A connector for connecting two support rods (40a, 40b) of a spinal column support device, which are placed or are to be placed along a spinal column portion, said connector comprising: a transverse rod, a first coupling (10a, 20a) coupling the transverse rod to a first one of the support rods and a second coupling (10b, 20b) coupling the transverse rod to the second one of the support rods, wherein at least one of the couplings has a clamping region (16, 17) that clamps the support rod with a clamping force, and has a force application means for generating an axial force (F a) that creates the clamping force, said force application means being an axial clamping screw (20a; 20b) which causes said axial force when screwed in wherein the axial force is conducted through the transverse rod, characterised in that a resilient arm together with a side bracket opposite the resilient arm form the clamping region, and in that a support for the transverse rod formed on the side of the transverse rod facing away from the clamping screw is, when not subjected to the axial force, situated in the region of the resilient arm axially at a higher level than on the side bracket opposite, such that the axial force conducted through the transverse rod first acts on the support surface of the resilient arm. a transverse rod, a first coupling (10a, 20a) coupling the transverse rod to a first one of the support rods and a second coupling (10b, 20b) coupling the transverse rod to the second one of the support rods, wherein at least one of the couplings has a clamping region (16, 17) that clamps the support rod with a clamping force, and has a force application means for generating an axial force (F a) that creates the clamping force, said force application means being an axial clamping screw (20a; 20b) which causes said axial force when screwed in wherein the axial force is conducted through the transverse rod, characterised in that a resilient arm together with a side bracket opposite the resilient arm form the clamping region, and in that a support for the transverse rod formed on the side of the transverse rod facing away from the clamping screw is, when not subjected to the axial force, situated in the region of the resilient arm axially at a higher level than on the side bracket opposite, such that the axial force conducted through the transverse rod first acts on the support surface of the resilient arm.
Displacement control device for variably adjusting the displacement of an hydraulic axial piston pump comprising a rotary shaft mounted rotatable in a housing around a rotary shaft axis of the rotary shaft, said rotary shaft having a first end and a second end, wherein to the second end, which protrudes outside of the housing, a torque can be applied for rotating the rotary shaft to open and close servo pressure lines (40, 45) arranged within the housing, which can conduct hydraulic fluid to and from a servo adjusting unit capable to adjust the displacement volume of the axial piston hydraulic pump, said rotary shaft further comprising a mid-portion located between the first end and second end, characterized in that concentric to the rotary shaft axis in the mid-portion of the rotary shaft a detent sleeve is positioned comprising an abutment area onto which, in the neutral position of the displacement control device, a sliding element abuts, which is mounted pre-stressed in the housing exerting a resilient force onto the detent sleeve transverse to the rotary shaft axis, wherein the detent sleeve in operating conditions of the displacement control device, is rotatable fixed with the rotary shaft and turns with the rotary shaft, however, for neutral position adjustments in non-operating conditions, the detent sleeve and the rotary shaft are detachable from each other, such that the rotary shaft be can be turned independently within the detent sleeve which is held in its neutral position by the transverse force of the sliding element onto the abutment area.
A method comprising: receiving, by at least one charm device configured to be affixed to a bracelet portion of a wearable electronic device (10, 10a), a first interaction input; detecting a position of the at least one charm device along the bracelet portion; sending, by the at least one charm device, a first message including a first information indicative of the first interaction input and a first identifier associated with the at least one charm device to a second wearable electronic device (10, 10b), the first identifier being further associated with at least a portion of the second wearable electronic device; receiving a second message including second information indicative of a second interaction input provided to a portion of the second wearable electronic device; and providing a second sensory output indicative of the second interaction input, a characteristic of the second sensory output determined by the position of the at least one charm device. receiving, by at least one charm device configured to be affixed to a bracelet portion of a wearable electronic device (10, 10a), a first interaction input; detecting a position of the at least one charm device along the bracelet portion; sending, by the at least one charm device, a first message including a first information indicative of the first interaction input and a first identifier associated with the at least one charm device to a second wearable electronic device (10, 10b), the first identifier being further associated with at least a portion of the second wearable electronic device; receiving a second message including second information indicative of a second interaction input provided to a portion of the second wearable electronic device; and providing a second sensory output indicative of the second interaction input, a characteristic of the second sensory output determined by the position of the at least one charm device.
A grommet (1,21,31) through which a wiring harness is passed, comprising: (a) a body having a cylindrical shape and configured to be attached to a hole in a panel, (b) a pair of cylindrical portions (5, 6) continuing to an end of the body and an other end of the body, respectively, such that the cylindrical portions are coaxial with respect to the body; (c) a locking portion provided on an outer periphery of one end of the body; and (d) at least one rib provided on the other end of the body; the rib residing on one side of the body, the one side being defined with reference to a virtual plane including a central axis of the body; the rib protruding along the central axis from the one end toward the other end of the body; and the rib extending on the other end radially from the centre of the body to the outer periphery of the body, such that a bending strength of the one side of the body with reference to the virtual plane is larger than a bending strength of an other side of the body. (a) a body having a cylindrical shape and configured to be attached to a hole in a panel, (b) a pair of cylindrical portions (5, 6) continuing to an end of the body and an other end of the body, respectively, such that the cylindrical portions are coaxial with respect to the body; (c) a locking portion provided on an outer periphery of one end of the body; and (d) at least one rib provided on the other end of the body; the rib residing on one side of the body, the one side being defined with reference to a virtual plane including a central axis of the body; the rib protruding along the central axis from the one end toward the other end of the body; and the rib extending on the other end radially from the centre of the body to the outer periphery of the body, such that a bending strength of the one side of the body with reference to the virtual plane is larger than a bending strength of an other side of the body.
A base station radio having a number of multi-carrier power amplifiers with multiple RF Power Classes to provide signal diversity at a cell site, said base station radio being operable to provide an on-demand RF Power Class change and comprising: a first multi-carrier power amplifier with multiple RF Power Classes for providing a main RF beam transmission at one sector of said cell site; a second multi-carrier power amplifier with multiple RF Power Classes for providing RF beam transmission diversity to said main RF beam transmission; a switch operable to disable either said first or second multi-carrier power amplifier when an RF Power Class change is required; and a switch module arranged to control the switch to switch over the Power Class for the first and second multi-carrier power amplifiers sequentially by: a) switching off the first multi-carrier power amplifier to enable a change to a new RF Power Class for said first multi-carrier power amplifier; b) switching said first multi-carrier power amplifier back on at said new RF Power Class; c) switching off the second multi-carrier power amplifier to enable a change to said new RF Power Class for said second multi-carrier power amplifier; and d) switching said second multi-carrier power amplifier back on at said new RF Power Class. a first multi-carrier power amplifier with multiple RF Power Classes for providing a main RF beam transmission at one sector of said cell site; a second multi-carrier power amplifier with multiple RF Power Classes for providing RF beam transmission diversity to said main RF beam transmission; a switch operable to disable either said first or second multi-carrier power amplifier when an RF Power Class change is required; and a switch module arranged to control the switch to switch over the Power Class for the first and second multi-carrier power amplifiers sequentially by: a) switching off the first multi-carrier power amplifier to enable a change to a new RF Power Class for said first multi-carrier power amplifier; b) switching said first multi-carrier power amplifier back on at said new RF Power Class; c) switching off the second multi-carrier power amplifier to enable a change to said new RF Power Class for said second multi-carrier power amplifier; and d) switching said second multi-carrier power amplifier back on at said new RF Power Class. a) switching off the first multi-carrier power amplifier to enable a change to a new RF Power Class for said first multi-carrier power amplifier; b) switching said first multi-carrier power amplifier back on at said new RF Power Class; c) switching off the second multi-carrier power amplifier to enable a change to said new RF Power Class for said second multi-carrier power amplifier; and d) switching said second multi-carrier power amplifier back on at said new RF Power Class.
Electromagnetic coil arrangement for an electromagnetic stirrer roller of a continuous casting plant, comprising an iron core with a cross section A and a first longitudinal extent L1, and at least three coil winding assemblies enclosing the iron core, two fastening stubs, two electrical connection contacts, which are connected in each case to at least one coil winding assembly, wherein the fastening stubs are arranged on the iron core in each case at the end faces, characterized in that the coil winding assemblies closest to the fastening stubs in each case and all of the coil winding assemblies electrically connected to them have a greater total number of turns than a total number of turns of all the other coil winding assemblies that are respectively electrically connected to one another.
A guide wheel comprising: an outer ring having an inner raceway; an inner ring having an outer raceway; a cage; a plurality of balls secured between said inner and outer raceways by said cage, said balls providing a bearing surface between said inner and outer raceways; a seal in contact with both said inner and outer rings (21, 22), said seal forming a liquid barrier to said balls; and a shield mounted to said inner ring, said shield extending radially from said inner ring toward said outer ring and spaced axially outward relative to said seal so that it is positioned to deflect a stream of liquid directed at said seal, said shield comprising nitrile butadiene rubber; a protected annular space defined between said seal and said shield; and said outer ring includes a radial wall portion and an axial wall portion disposed axially outward from said radial wall, and an annular gap defined between said shield element and said radial wall portion and said axial wall portion of said outer ring providing a non-direct path for passage of fluids into and out of said annular space. an outer ring having an inner raceway; an inner ring having an outer raceway; a cage; a plurality of balls secured between said inner and outer raceways by said cage, said balls providing a bearing surface between said inner and outer raceways; a seal in contact with both said inner and outer rings (21, 22), said seal forming a liquid barrier to said balls; and a shield mounted to said inner ring, said shield extending radially from said inner ring toward said outer ring and spaced axially outward relative to said seal so that it is positioned to deflect a stream of liquid directed at said seal, said shield comprising nitrile butadiene rubber; a protected annular space defined between said seal and said shield; and said outer ring includes a radial wall portion and an axial wall portion disposed axially outward from said radial wall, and an annular gap defined between said shield element and said radial wall portion and said axial wall portion of said outer ring providing a non-direct path for passage of fluids into and out of said annular space.
A synthetic ribonucleic acid molecule comprising: a sense strand of sequence GUGGCAUUCUACAUCUUCA (SEQ ID NO: 7), and, an antisense strand of sequence UGAAGAUGUAGAAUGCCAC (SEQ ID NO: 8) a sense strand of sequence GUGGCAUUCUACAUCUUCA (SEQ ID NO: 7), and, an antisense strand of sequence UGAAGAUGUAGAAUGCCAC (SEQ ID NO: 8)
A composition used as an insulating, corrosion-inhibiting, self-extinguishing, impermeable, epoxy and ecological coating, comprising: 21-51% water, 4-13% diatomite C110 (Celite C110®), 2-6% calcined alumina, 0.3-2% hexylenglycol, 16-47% elastomeric acrylic resin, 0.7-3% acrylic thickener, and 0.7-3% ammonium hydroxide. 21-51% water, 4-13% diatomite C110 (Celite C110®), 2-6% calcined alumina, 0.3-2% hexylenglycol, 16-47% elastomeric acrylic resin, 0.7-3% acrylic thickener, and 0.7-3% ammonium hydroxide.
A radiotherapy treatment planning apparatus, adapted to receive details of constraints relating to a radiotherapy treatment and create a treatment plan for a radiotherapy system, the constraints including location information as to at least one target region within the patient that is to be irradiated and at least one sensitive region within the patient, irradiation of which is to be avoided; wherein the treatment plan includes details of a series of individual doses to be delivered to different locations within the patient during a treatment fraction, and wherein the treatment planning apparatus is arranged to deliver individual doses that are directed to a region proximate a sensitive structure earlier in the series than individual doses directed to a region not proximate a sensitive structure,
A compound of the formula: characterized in that R is a glycosyl group, for use in the treatment of a cardiovascular disease, wherein the cardiovascular disease is cardiomyopathy.
An apparatus comprising: a gas turbine engine having a nozzle ejector, an exhaust flow from the gas turbine engine forming the primary fluid of the nozzle ejector; a passageway operable to convey at least a portion of a boundary layer air withdrawn from a flow stream surface upstream of the nozzle ejector; and a moveable ejector selector having an open position and a closed position, the open position forming an open position secondary airflow path from an exterior location of the nozzle ejector to the primary fluid of the nozzle ejector, the closed position forming a closed position secondary airflow path from the flow stream surface, through the passageway, and to the primary fluid of the nozzle ejector. a gas turbine engine having a nozzle ejector, an exhaust flow from the gas turbine engine forming the primary fluid of the nozzle ejector; a passageway operable to convey at least a portion of a boundary layer air withdrawn from a flow stream surface upstream of the nozzle ejector; and a moveable ejector selector having an open position and a closed position, the open position forming an open position secondary airflow path from an exterior location of the nozzle ejector to the primary fluid of the nozzle ejector, the closed position forming a closed position secondary airflow path from the flow stream surface, through the passageway, and to the primary fluid of the nozzle ejector.
Process for the preparation of polysulfide of formula HS-(CH 2) n -O-(CH 2) m -O-(CH 2) p -[S-S-CH 2) n -O-(CH 2) m -O-(CH 2) p] q -SH wherein m is an integer in the range 1 to 4, n and p are integers in the range 1-10, and q is an integer in the range 1-60, by oxidizing a bismercaptodiether compound of formula HS-(CH 2) n -O-(CH 2) m -O-(CH 2) p -SH with elemental sulfur in the presence of a base and a protic solvent.
Method for detecting a variation in a physical variable (a) which is acquired by a sensor, by means of an interference variable, wherein the method comprises the following steps: - reading in a multiplicity of sensor signal values, wherein the sensor signal values each represent the physical variable (a) which is acquired at a specific point in time (ti); - determining a characteristic curve using at least two of the multiplicity of sensor signal values; - forming a characteristic value (m) which represents a derivative of the characteristic curve, wherein the characteristic value (m) is assigned to the characteristic curve, and - identifying the variation in the physical variable (a) by means of the interference variable if the characteristic value (m) has a predetermined relationship with a threshold value, wherein - in the forming step the characteristic curve is formed as a regression polynomial, in particular as a linear regression polynomial or as a straight line, and - in the identifying step the variation of the physical variable (a) is detected by means of the interference variable when the characteristic value (m) is higher than the threshold value. - reading in a multiplicity of sensor signal values, wherein the sensor signal values each represent the physical variable (a) which is acquired at a specific point in time (ti); - determining a characteristic curve using at least two of the multiplicity of sensor signal values; - forming a characteristic value (m) which represents a derivative of the characteristic curve, wherein the characteristic value (m) is assigned to the characteristic curve, and - identifying the variation in the physical variable (a) by means of the interference variable if the characteristic value (m) has a predetermined relationship with a threshold value, - in the forming step the characteristic curve is formed as a regression polynomial, in particular as a linear regression polynomial or as a straight line, and - in the identifying step the variation of the physical variable (a) is detected by means of the interference variable when the characteristic value (m) is higher than the threshold value.
A cooking apparatus comprising: • a base comprising a lower heater defining a bottom cooking surface where a foodstuff to be cooked can be positioned, • a cover closable onto the base and comprising an upper heater defining a top cooking surface, the cover further comprising a lifting system for moving the upper heater to and from the lower heater when the cover is closed onto the base, • a database storing a plurality of selectable cooking programs each including one or more cooking phases, wherein each cooking phase is associated with corresponding cooking parameters including a temperature of the upper heater and a distance (d) of the top cooking surface from the bottom cooking surface, and • a controller configured to control the operations of the lifting system and the upper heater based on the cooking parameters associated with a selected program, characterized by further comprising an adjustable valve for venting a cooking space between the bottom and top cooking surfaces (4, 5). • a base comprising a lower heater defining a bottom cooking surface where a foodstuff to be cooked can be positioned, • a cover closable onto the base and comprising an upper heater defining a top cooking surface, the cover further comprising a lifting system for moving the upper heater to and from the lower heater when the cover is closed onto the base, • a database storing a plurality of selectable cooking programs each including one or more cooking phases, wherein each cooking phase is associated with corresponding cooking parameters including a temperature of the upper heater and a distance (d) of the top cooking surface from the bottom cooking surface, and • a controller configured to control the operations of the lifting system and the upper heater based on the cooking parameters associated with a selected program,
A bioconjugate comprising a glycan selected from the group consisting of chondroitin sulfate, dermatan sulfate, and heparin, or a derivative thereof and at least one peptide(s), wherein the peptide(s) comprises a collagen-binding unit or a hyaluronic acid-binding unit, and are bound to the glycan via a hydrazide-carbonyl linkage, and wherein the glycan does not contain oxidatively cleaved saccharide units.
A razor cartridge comprising: a plurality of razor blades installed in one direction of a cartridge frame; and a trimmer installed in the other direction of the cartridge frame, wherein the trimmer includes: a trimming blade seated in a seating groove formed in the cartridge frame; and a trimmer cap coupled to the cartridge frame so that the trimming blade is fixed, wherein the plurality of razor blades are formed at the front surface of the razor cartridge and the seating groove is formed at the rear surface of the razor cartridge. a plurality of razor blades installed in one direction of a cartridge frame; and a trimmer installed in the other direction of the cartridge frame, wherein the trimmer includes: a trimming blade seated in a seating groove formed in the cartridge frame; and a trimmer cap coupled to the cartridge frame so that the trimming blade is fixed, wherein the plurality of razor blades are formed at the front surface of the razor cartridge and the seating groove is formed at the rear surface of the razor cartridge. a trimming blade seated in a seating groove formed in the cartridge frame; and a trimmer cap coupled to the cartridge frame so that the trimming blade is fixed, wherein the plurality of razor blades are formed at the front surface of the razor cartridge and the seating groove is formed at the rear surface of the razor cartridge.