mhurhangee/ep-ind-claims huggingface dataset:
Cap group for a container pipe of a rifle, comprising: - a manually removable closure latch, comprising: a) a main body comprising a bottom and an annular wall suitable for being gripped by a user, having a main axis; b) an engagement element, joined to the main body; c) a spring housed in the main body abutting against the bottom; and d) a socket engaged in a slidable manner in axial direction with the main body, suitable for engaging the spring in compression; - a container cap engageable in a removable manner with the mouth of the container pipe, comprising a cam profile, said cam profile suitable for being engaged by the engagement element and for putting the spring in compression, further comprising a housing seat for the stable and manually reversible reception of the engagement element. - a manually removable closure latch, comprising: a) a main body comprising a bottom and an annular wall suitable for being gripped by a user, having a main axis; b) an engagement element, joined to the main body; c) a spring housed in the main body abutting against the bottom; and d) a socket engaged in a slidable manner in axial direction with the main body, suitable for engaging the spring in compression; a) a main body comprising a bottom and an annular wall suitable for being gripped by a user, having a main axis; b) an engagement element, joined to the main body; c) a spring housed in the main body abutting against the bottom; and d) a socket engaged in a slidable manner in axial direction with the main body, suitable for engaging the spring in compression; - a container cap engageable in a removable manner with the mouth of the container pipe, comprising a cam profile, said cam profile suitable for being engaged by the engagement element and for putting the spring in compression, further comprising a housing seat for the stable and manually reversible reception of the engagement element.
A medical article comprising: a pressure-sensitive adhesive layer comprising acid-functional groups or basic-functional groups, wherein the PSA includes greater than 0.42 mmoles acidic- or basic-functional groups per gram PSA; and a moisture vapor transmission rate (MVTR)-modifying material that is basic when the PSA comprises acidic-functional groups or is acidic when the PSA comprises basic-functional groups, wherein the MVTR-modifying material is incorporated within a scaffold that is in contact with the PSA layer; wherein the MVTR-modifying material is immiscible with the PSA, and reacts with the functional groups of the PSA upon contact to form a poly-salt in the presence of fluid, and wherein the PSA includes an additional hydrophilic polymer component, wherein "immiscible" means that MVTR-modifying material is not capable of penetrating into the core of a 0.25 centimeter (cm) cross-section of a PSA layer when examined by cutting the PSA into a 0.25 cm thick x 2.5 cm wide x 10 cm long strip, then placing the PSA strip in contact with the MVTR-modifying material for 24 hours at 25 degrees Celsius and 20% to 50% relative humidity, and then analyzing a cross-section of the PSA strip for presence of MVTR-modifying material at the center of the section. a pressure-sensitive adhesive layer comprising acid-functional groups or basic-functional groups, wherein the PSA includes greater than 0.42 mmoles acidic- or basic-functional groups per gram PSA; and a moisture vapor transmission rate (MVTR)-modifying material that is basic when the PSA comprises acidic-functional groups or is acidic when the PSA comprises basic-functional groups, wherein the MVTR-modifying material is incorporated within a scaffold that is in contact with the PSA layer; wherein the MVTR-modifying material is immiscible with the PSA, and reacts with the functional groups of the PSA upon contact to form a poly-salt in the presence of fluid, and wherein the PSA includes an additional hydrophilic polymer component, wherein "immiscible" means that MVTR-modifying material is not capable of penetrating into the core of a 0.25 centimeter (cm) cross-section of a PSA layer when examined by cutting the PSA into a 0.25 cm thick x 2.5 cm wide x 10 cm long strip, then placing the PSA strip in contact with the MVTR-modifying material for 24 hours at 25 degrees Celsius and 20% to 50% relative humidity, and then analyzing a cross-section of the PSA strip for presence of MVTR-modifying material at the center of the section.
An off-stop mechanism for a circuit breaker, comprising: an operating handle moveable to an OFF configuration, provided main contacts (210, 212) of the circuit breaker are not fused together, the operating handle including a blocking engagement portion; a cross bar housing; a blocking member pivotally coupled at a pivot location and rotatable between an unblocked orientation and a blocked orientation, the blocking member including a linkage attachment location and a blocking contact portion; and a linkage including a main portion, a first end and a second end, the linkage is coupled between the cross bar housing at the first end and the linkage attachment location on the blocking member at the second end, the linkage being configured to: position the blocking member in the unblocked orientation when the main contacts (210, 212) are not fused together, and configure the blocking member to a blocked orientation in response to the main contacts (210, 212) being fused together, wherein the blocking member in the blocked orientation is configured to engage the blocking engagement portion as the operating handle is moved to the OFF configuration and the engagement places the blocking member under a compressive force between the pivot location and the blocking contact portion. an operating handle moveable to an OFF configuration, provided main contacts (210, 212) of the circuit breaker are not fused together, the operating handle including a blocking engagement portion; a cross bar housing; a blocking member pivotally coupled at a pivot location and rotatable between an unblocked orientation and a blocked orientation, the blocking member including a linkage attachment location and a blocking contact portion; and a linkage including a main portion, a first end and a second end, the linkage is coupled between the cross bar housing at the first end and the linkage attachment location on the blocking member at the second end, the linkage being configured to: position the blocking member in the unblocked orientation when the main contacts (210, 212) are not fused together, and configure the blocking member to a blocked orientation in response to the main contacts (210, 212) being fused together, wherein the blocking member in the blocked orientation is configured to engage the blocking engagement portion as the operating handle is moved to the OFF configuration and the engagement places the blocking member under a compressive force between the pivot location and the blocking contact portion. position the blocking member in the unblocked orientation when the main contacts (210, 212) are not fused together, and configure the blocking member to a blocked orientation in response to the main contacts (210, 212) being fused together, wherein the blocking member in the blocked orientation is configured to engage the blocking engagement portion as the operating handle is moved to the OFF configuration and the engagement places the blocking member under a compressive force between the pivot location and the blocking contact portion.
An indoor unit of an air-conditioning apparatus, comprising: a casing including an air inlet formed at a top portion thereof and an air outlet formed at a bottom side of a front portion thereof; an axial-flow or diagonal-flow fan disposed on a downstream side of the air inlet within the casing; a heat exchanger disposed on a downstream side of the fan within the casing and on an upstream side of the air outlet, for exchanging heat between air blown out of the fan and a refrigerant; a filter that collects dust from air sucked into the casing; and a motor stay including a fixing member and a bar-like or plate-like support member, the fixing member fixing a fan motor on which an impeller of the fan is mounted or a support structure for rotatably supporting the impeller of the fan, the bar-like or plate-like support member securing the fixing member to the casing, the indoor unit characterised in that the motor stay is disposed on the downstream side of the fan and on a flow channel between the fan and the heat exchanger, and in that, as viewed from a cross section, the support member has a portion that inclines to lower as the portion becomes further away from the fixing member, and a distance between the support member and a trailing edge of a blade of the fan increases toward a tip portion of the blade. a casing including an air inlet formed at a top portion thereof and an air outlet formed at a bottom side of a front portion thereof; an axial-flow or diagonal-flow fan disposed on a downstream side of the air inlet within the casing; a heat exchanger disposed on a downstream side of the fan within the casing and on an upstream side of the air outlet, for exchanging heat between air blown out of the fan and a refrigerant; a filter that collects dust from air sucked into the casing; and a motor stay including a fixing member and a bar-like or plate-like support member, the fixing member fixing a fan motor on which an impeller of the fan is mounted or a support structure for rotatably supporting the impeller of the fan, the bar-like or plate-like support member securing the fixing member to the casing, the indoor unit characterised in that the motor stay is disposed on the downstream side of the fan and on a flow channel between the fan and the heat exchanger, and in that, as viewed from a cross section, the support member has a portion that inclines to lower as the portion becomes further away from the fixing member, and a distance between the support member and a trailing edge of a blade of the fan increases toward a tip portion of the blade.
Apparatus for the layer-by-layer production of three-dimensional objects, comprising a construction chamber with an adjustable-height construction platform, with an apparatus for applying, to the construction platform, a layer of a material solidifiable by exposure to electromagnetic radiation, and with irradiation equipment comprising a radiation source which emits electromagnetic radiation, a control unit and a lens which is located in the beam path of the electromagnetic radiation, for irradiating points of the layer corresponding to the object, characterized in that the apparatus for applying a layer is designed in the form of a rotating cylinder which is provided with a brush trim.
Radial position sensor for measuring the radial position of a rotor within a stator, this sensor comprising measuring means (Z1:Z4; Z1:Z8) for measuring the position of the rotor along a first axis radial to a rotation axis (Z-Z') of the rotor and along a second axis perpendicular to the first axis, characterized in that the measuring means include - four magnetic poles, among which two poles (Z1, Z3) are diametrically opposed along the first axis and two other poles (Z2, Z4) are diametrically opposed along the second axis, the magnetic poles being distributed, on the inner surface of the stator, with alternating magnetic polarities (N, S) around the entire circumference of the stator, or - eight magnetic poles (Z1:Z4; Z1:Z8) that are distributed, on the inner surface of the stator, with alternating magnetic polarities (N, S) around the entire circumference of the stator and that are arranged so that each pole deviates by an angle (A"6) of approximately 30° from the nearest axis among the first axis and the second axis, and in that each pole is formed by an electromagnet (Z1:Z4; Z1:Z8). - four magnetic poles, among which two poles (Z1, Z3) are diametrically opposed along the first axis and two other poles (Z2, Z4) are diametrically opposed along the second axis, the magnetic poles being distributed, on the inner surface of the stator, with alternating magnetic polarities (N, S) around the entire circumference of the stator, or - eight magnetic poles (Z1:Z4; Z1:Z8) that are distributed, on the inner surface of the stator, with alternating magnetic polarities (N, S) around the entire circumference of the stator and that are arranged so that each pole deviates by an angle (A"6) of approximately 30° from the nearest axis among the first axis and the second axis,
A method of contactless measuring angular displacements by computing a function of the output signals of two magnetic field sensors (H1, H2) placed at two different locations in a circular airgap of a rotating magnetic circuit assembly composed by ring shaped parts surrounding a central shaft and surrounded by an external cylindrical tube serving the purpose to provide an outer path for the radial closing of the magnetic flux; wherein the airgap is located between said ring shaped parts and said external cylindrical tube; said method further comprising the step of using two magnetic field sensors to measure values Vh1 and Vh2 proportional to the magnetic fields B1 and B2, at said two locations, the radial width of said airgap varying along the circumference by a variable geometry of said ring shaped parts such that the sum B1+B2 is independent of said angular displacement; whereby the geometry of said magnetic circuit is arranged to convert the displacement to be measured into a corresponding variation of B1 and B2; wherein said rotating magnetic circuit assembly further comprises a ring shaped permanent magnet rotating with said magnetic circuit, and a signal-processing electronic circuitry; said method further comprising the step of processing the signals generated by said magnetic field sensors to produce the sum Vh1+Vh2; said sum Vh1+Vh2 is then used in a feedback loop arranged to control the biasing current or the supply voltage common to both of said magnetic field sensors in such a way that said sum Vh1+Vh2 is kept constant at a reference voltage and consequently the output voltage of one of said magnetic field sensors becomes proportional to B1/(B1+B2) and the other of said magnetic field sensors becomes proportional to B2/(B1+B2).
Target for physical vapour deposition with the following chemical composition: - at least 95 mol% of a mixture of at least two of the following compounds: titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2) - 0.01 mol% to 5 mol% of carbon - less than 0.01 mol% of borides other than titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2) wherein, in relation to metallic purity, the sum of the mixture of titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2) and the carbon is at least 99.8 mol%, and with the following physical properties: - a density greater than 90%, preferably greater than 95%, of the theoretical density of the chemical composition defined above - a d50 value, as the average grain size, of grains of the mixture of titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2), of less than 10 μm, preferably less than 3 μm. - at least 95 mol% of a mixture of at least two of the following compounds: titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2) - 0.01 mol% to 5 mol% of carbon - less than 0.01 mol% of borides other than titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2) wherein, in relation to metallic purity, the sum of the mixture of titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2) and the carbon is at least 99.8 mol%, and with the following physical properties: - a density greater than 90%, preferably greater than 95%, of the theoretical density of the chemical composition defined above - a d50 value, as the average grain size, of grains of the mixture of titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2), of less than 10 μm, preferably less than 3 μm. - a density greater than 90%, preferably greater than 95%, of the theoretical density of the chemical composition defined above - a d50 value, as the average grain size, of grains of the mixture of titanium diboride (TiB 2) and/or vanadium diboride (VB 2) and/or mixed phases ((Ti,V)B 2) of titanium diboride (TiB 2) and vanadium diboride (VB 2), of less than 10 μm, preferably less than 3 μm.
A method for predicting physical properties of a polyethylene resin comprising: polymerizing ethylene in a first reactor to form a low-density polyethylene resin, and crosslinking the low-density polyethylene resin in a second reactor in the presence of a peroxide-based crosslinking agent, wherein the method comprises: measuring a ratio Y2 (wt%) at which the low-density polyethylene resin absorbs the crosslinking agent based on a peak temperature T of the first reactor as described in the specification and a charging ratio Y1 (wt%) of the peroxide-based crosslinking agent in the second reactor; determining constants of A and B by performing a linear regression according to the following Equation 1 on the basis of the measured and the collected data; and predicting a ratio Y2 (wt%) at which the low-density polyethylene resin absorbs the crosslinking agent in the production process of the low-density crosslinked polyethylene resin in accordance with the linear regression equation of Equation 1 in which the constants of A and B have been determined. Y 1 − Y 2 = A + BT in Equation 1, Y1 (wt%) is the charging ratio (wt%) of (peroxide-based crosslinking agent charged to the second reactor / low-density polyethylene resin charged to the second reactor), Y2 (wt%) is the crosslinking agent absorption ratio (wt%) of (peroxide-based crosslinking agent absorbed into the low-density polyethylene resin in the second reactor / low-density polyethylene resin charged to the second reactor), T is the polymerization peak temperature (°C) of the first reactor, and A and B are constants determined by linear regression analysis. measuring a ratio Y2 (wt%) at which the low-density polyethylene resin absorbs the crosslinking agent based on a peak temperature T of the first reactor as described in the specification and a charging ratio Y1 (wt%) of the peroxide-based crosslinking agent in the second reactor; determining constants of A and B by performing a linear regression according to the following Equation 1 on the basis of the measured and the collected data; and predicting a ratio Y2 (wt%) at which the low-density polyethylene resin absorbs the crosslinking agent in the production process of the low-density crosslinked polyethylene resin in accordance with the linear regression equation of Equation 1 in which the constants of A and B have been determined. Y 1 − Y 2 = A + BT in Equation 1, Y1 (wt%) is the charging ratio (wt%) of (peroxide-based crosslinking agent charged to the second reactor / low-density polyethylene resin charged to the second reactor), Y2 (wt%) is the crosslinking agent absorption ratio (wt%) of (peroxide-based crosslinking agent absorbed into the low-density polyethylene resin in the second reactor / low-density polyethylene resin charged to the second reactor), T is the polymerization peak temperature (°C) of the first reactor, and A and B are constants determined by linear regression analysis.
Fuel injector for an internal combustion engine comprising an injector body in which there are positioned an actuator, a control valve, a needle guide; the actuator actuating the control valve, the control valve controlling an injection needle sliding in its guide between an open position in which injection is permitted and a closed position in which the injection of fuel is prevented, characterized in that the injector comprises: a metal ring including a first metal extension substantially perpendicular to the ring and integrated with the ring, said ring and the first metal extension being over molded onto the cylindrical circumference of the actuator, the first metal extension being connected to a connector pin of the injector; a second metal extension inserted into a housing of the valve body having a recess facing the ring, the first termination of the second metal extension being provided with a spring system accommodated in the recess so as to ensure an electrical contact with the ring, and wherein the second metal extension is positioned through the body of the control valve. a metal ring including a first metal extension substantially perpendicular to the ring and integrated with the ring, said ring and the first metal extension being over molded onto the cylindrical circumference of the actuator, the first metal extension being connected to a connector pin of the injector; a second metal extension inserted into a housing of the valve body having a recess facing the ring, the first termination of the second metal extension being provided with a spring system accommodated in the recess so as to ensure an electrical contact with the ring, and wherein the second metal extension is positioned through the body of the control valve.
Process for the direct synthesis of Cu-SSZ-13 comprising the following steps: (i)preparing a mixture containing water, at least one silicon source, at least one Al source, at least one Cu source, at least one polyamine for complexing with Cu, and a single OSDA component selected from N,N,N-trimethyl-1-adamantammonium, or benzyl trimethylammonium cations, one or more precursors including alkali cations [Alk] and fluoride anions, to obtain a final synthesis mixture having the following molar composition: SiO 2: a Al2O3: b Cu: c Polyamine: d OSDA: e H2O: f Alk: g F wherein a is in the range from 0.007 to 0.16; b is in the range from 0.001 to 0.6; c is in the range from 0.001 to 0.6; d is in the range from 0.001 to 2; e is in the range from 1 to 200; f is in the range from 0 to 1; and g is in the range from 0 to 1; (ii) hydrothermal treating the final synthesis mixture at a temperature of 80-200°C until formation of a crystalline material of Cu-SSZ-13; and (iii)recovering the crystalline material of Cu-SSZ-13. (i)preparing a mixture containing water, at least one silicon source, at least one Al source, at least one Cu source, at least one polyamine for complexing with Cu, and a single OSDA component selected from N,N,N-trimethyl-1-adamantammonium, or benzyl trimethylammonium cations, one or more precursors including alkali cations [Alk] and fluoride anions, to obtain a final synthesis mixture having the following molar composition: SiO 2: a Al2O3: b Cu: c Polyamine: d OSDA: e H2O: f Alk: g F wherein a is in the range from 0.007 to 0.16; b is in the range from 0.001 to 0.6; c is in the range from 0.001 to 0.6; d is in the range from 0.001 to 2; e is in the range from 1 to 200; f is in the range from 0 to 1; and g is in the range from 0 to 1; a is in the range from 0.007 to 0.16; b is in the range from 0.001 to 0.6; c is in the range from 0.001 to 0.6; d is in the range from 0.001 to 2; e is in the range from 1 to 200; f is in the range from 0 to 1; and g is in the range from 0 to 1; (ii) hydrothermal treating the final synthesis mixture at a temperature of 80-200°C until formation of a crystalline material of Cu-SSZ-13; and (iii)recovering the crystalline material of Cu-SSZ-13.