mhurhangee/ep-ind-claims huggingface dataset:
Knitted bra of the type comprising at least: - a first knitted cup and a second knitted cup that are aligned transversely and that each have a substantially hemispherical shape, each cup (12a, 12b) comprising a first knitted elastically extendable peripheral portion (30a, 30b) for supporting the breast, - a part forming a stiffener that extends at least partially beneath each cup (12a, 12b), and - a band for dorsal attachment of the bra, the stiffener forming a reinforcing band that at least partially surrounds the first peripheral supporting portion (30a, 30b) of each cup (12a, 12b), and the stiffener being knitted using a first type of stitch, designed to replace an added reinforcement, characterized in that the stiffener has low, or no, elastic extendibility along a vertical direction perpendicular to a transverse direction, so as to support the breast. - a first knitted cup and a second knitted cup that are aligned transversely and that each have a substantially hemispherical shape, each cup (12a, 12b) comprising a first knitted elastically extendable peripheral portion (30a, 30b) for supporting the breast, - a part forming a stiffener that extends at least partially beneath each cup (12a, 12b), and - a band for dorsal attachment of the bra, the stiffener forming a reinforcing band that at least partially surrounds the first peripheral supporting portion (30a, 30b) of each cup (12a, 12b), and the stiffener being knitted using a first type of stitch, designed to replace an added reinforcement, characterized in that the stiffener has low, or no, elastic extendibility along a vertical direction perpendicular to a transverse direction, so as to support the breast.
A tensioning device for a revolving traction mechanism drive with at least one traction mechanism guided via deflection pulleys, in particular, for a chain drive or belt drive, which traction mechanism drive is a component of a conveyor unit or drive unit within a machine environment, in particular, within a production machine, a conveying machine, or a handling machine, wherein the tensioning device comprises a hub, which is anchored to a stationary component of the machine environment in the region of a slack strand section of the revolving traction mechanism, to which hub an elastically yielding sliding section is attached in a lever-like manner, which sliding section interacts with the traction mechanism in its slack strand and pretensions it between two deflection pulleys, wherein the sliding section is formed by a convexly curved cantilever, of which the convexly curved side faces toward and is in contact with the slack strand of the traction mechanism, and characterised in that the cantilever is supported on an elastically deformable support element, which is anchored to the hub in a manner spaced apart from the cantilever, and to which support element an optical indicator is assigned, which indicates and allows to read the particular degree of deformation of the cantilever and/or of the support element relative to the hub, which is anchored to the stationary component. wherein the tensioning device comprises a hub, which is anchored to a stationary component of the machine environment in the region of a slack strand section of the revolving traction mechanism, to which hub an elastically yielding sliding section is attached in a lever-like manner, which sliding section interacts with the traction mechanism in its slack strand and pretensions it between two deflection pulleys, wherein the sliding section is formed by a convexly curved cantilever, of which the convexly curved side faces toward and is in contact with the slack strand of the traction mechanism, and characterised in that the cantilever is supported on an elastically deformable support element, which is anchored to the hub in a manner spaced apart from the cantilever, and to which support element an optical indicator is assigned, which indicates and allows to read the particular degree of deformation of the cantilever and/or of the support element relative to the hub, which is anchored to the stationary component.
A cushioning assembly (20, 20A, 20B) comprising: a first bladder wall; a second bladder wall disposed opposite the first bladder wall; and at least one first dome defined by the first bladder wall and extending away from the second bladder wall, the at least one first dome and the second bladder wall cooperating together to define a fluid-filled cavity therebetween; characterized in that the at least one first dome includes a first base portion having a first effective base radius, and a first cap portion having a first effective cap radius, with the first effective cap radius being less than the first effective base radius. a first bladder wall; a second bladder wall disposed opposite the first bladder wall; and at least one first dome defined by the first bladder wall and extending away from the second bladder wall, the at least one first dome and the second bladder wall cooperating together to define a fluid-filled cavity therebetween; characterized in that the at least one first dome includes a first base portion having a first effective base radius, and a first cap portion having a first effective cap radius, with the first effective cap radius being less than the first effective base radius.
A nonlinear equalizer (305, 402) in an intensity modulation-direct detection (IM-DD) system, wherein the nonlinear equalizer is characterized by: a calculation module for calculating the nonlinear distortions of the input signal according to the following formulae: Δ t = ∑ i = − N N ∑ k = − N i − 1 c i, k x t − i − x t − k 2, or; Δ t = ∑ i = 1 N ∑ k = 0 N c i, k x t − i − x t − k 2 + x t − i − x t + k 2 + x t + i − x t − k 2 + x t + i − x t + k 2, or; Δ t = ∑ i = 1 N ∑ k = 0 i c i, k x t − i − x t − k 2 + x t − i − x t + k 2 + x t + i − x t − k 2 + x t + i − x t + k 2; where Δ t is the nonlinear distortions of the input signal, c i,k is a nonlinear coefficient, x t-i, x t-k, x t + i and x t + k are the values of the input signal at different time, and N is a natural number. a calculation module for calculating the nonlinear distortions of the input signal according to the following formulae: Δ t = ∑ i = − N N ∑ k = − N i − 1 c i, k x t − i − x t − k 2, or; Δ t = ∑ i = 1 N ∑ k = 0 N c i, k x t − i − x t − k 2 + x t − i − x t + k 2 + x t + i − x t − k 2 + x t + i − x t + k 2, or; Δ t = ∑ i = 1 N ∑ k = 0 i c i, k x t − i − x t − k 2 + x t − i − x t + k 2 + x t + i − x t − k 2 + x t + i − x t + k 2; where Δ t is the nonlinear distortions of the input signal, c i,k is a nonlinear coefficient, x t-i, x t-k, x t + i and x t + k are the values of the input signal at different time, and N is a natural number.
A composition or combination comprising as a first constituent an inhibitor of Na+-taurocholate cotransporting polypeptide (NTCP) and as a second constituent an immunomodulator for use in a method of treatment of HBV or HDV infection, hepatitis B, chronic hepatitis B, hepatitis D, or chronic hepatitis D in a subject, wherein the immunomodulator is a pegylated interferon alpha, and wherein the NTCP inhibitor is a pre-S1 peptide inhibitor, wherein the pre-S1 peptide inhibitor comprises a pre-S1 peptide of an HBV virus, and wherein a unit dose of pre-S1 peptide inhibitor is 2 mg, 5 mg, or 10 mg and a unit dose of interferon is 180 μg; wherein the pre-S1 peptide inhibitor is N-Myristoyl-glycyl-L-threonyl-L-asparaginyl-L-leucyl-L-seryl-L-valyl-L-prolyl-L-asparaginyl-L-prolyl-L-leucyl-glycyl-L-phenylalanyl-L-phenylalanyl-L-prolyl-L-aspartyl-L-histidyl-L-glutaminyl-L-leucyl-L-aspartyl-L-prolyl-L-alanyl-L-phenylalanyl-glycyl-L-alanyl-L-asparaginyl-L-seryl-L-asparaginyl-L-asparaginyl-L-prolyl-L-aspartyl-L-tryptophanyl-L-aspartyl-L-phenylalanyl-L-asparaginyl-L-prolyl-L-asparaginyl-L-lysyl-L-aspartyl-L-histidyl-L-tryptophanyl-L-prolyl-L-glutamyl-L-alanyl-L-asparaginyl-L-lysyl-L-valyl-glycinamide, acetate salt.
A fan for dissipating heat from an electronic component, wherein the fan comprises a casing duct, a motor, and multiple fan blades that are assembled on a rotor of the motor, wherein the casing duct comprises a side wall that is disposed around the multiple fan blades, and a support frame that is connected to an end of the side wall and located on an inner side of the side wall; the support frame comprises a support part, and multiple ribs that are connected to circumference of the support part; one end of the multiple ribs is connected to the support part, and the other end is connected to the inner side of the side wall; and the motor is fastened to the support part, and the rotor of the motor drives the multiple fan blades to rotate, wherein multiple through-holes are disposed on the side wall of the casing duct, and at least more than one of the multiple through-holes are slant through-holes, a shape of a cross section of each through-hole is a circle, and an included angle θ between a tangent line or a tangent plane at which an inner wall or an outer wall of the side wall of the casing duct intersects with an axis of each slant through-hole and the axis of the same slant through-hole is an acute angle or an obtuse angle; characterized in that, a diameter of each slant through-hole is 3 mm, and an allowable error range for this dimension is ±20%; and the fan further comprises a sound absorption material filled in each one of the multiple through-holes of the side wall of the casing duct.
A collapsible valve for needleless access devices, the collapsible valve comprising: a first portion with at least one dimple (212; 213) in a side thereof; and a second portion, the second portion being narrower than the first portion and arranged along an axial dimension of the first portion, the second portion including a cut therein, wherein the cut is displaced from the dimple (212; 213) by approximately 90 degrees, a side of the second portion is stronger than it is directly above the cut, when rotational pressure is exerted on the valve, the dimple (212; 213) begins to collapse, and when the dimple (212; 213) begins to collapse, a pressure point appears on the second portion with an angular displacement of ninety degrees from the cut causing the dimple (212; 213) to collapse before the cut collapses. a first portion with at least one dimple (212; 213) in a side thereof; and a second portion, the second portion being narrower than the first portion and arranged along an axial dimension of the first portion, the second portion including a cut therein, wherein the cut is displaced from the dimple (212; 213) by approximately 90 degrees, a side of the second portion is stronger than it is directly above the cut, when rotational pressure is exerted on the valve, the dimple (212; 213) begins to collapse, and when the dimple (212; 213) begins to collapse, a pressure point appears on the second portion with an angular displacement of ninety degrees from the cut causing the dimple (212; 213) to collapse before the cut collapses.
An eccentric component for a system for varying the compression ratio of an internal combustion engine comprising: - a body made from two half-shells assembled with one another, said body including a face that is eccentric with respect to an internal face of said body, and two ring gears positioned on either side of said eccentric face and concentric to said internal face, and in which the contact faces (50, 51) are centred one with respect to the other by means of an indexing device (101, 102) and/or of irregularities in relief of complementary shape arranged in said contact faces (50, 51), characterized in that said component further comprises at least one locking element fitted in the interior of a corresponding cavity formed in part in each half-shell, at least one bore being formed in part in said locking element and in part in a corresponding half-shell. - a body made from two half-shells assembled with one another, said body including a face that is eccentric with respect to an internal face of said body, and two ring gears positioned on either side of said eccentric face and concentric to said internal face,
Dry batch for the production of a coarse ceramic, refractory, shaped, fired product of nitride-bonded SiC, in particular a pipe protection plate for waste incineration plants or a nozzle for flue gas desulfurization plants or a bell for melting tanks, comprising a) an SiC granulation, preferably in an amount of 73.0 to 82.0 ma.-ma.- %, preferably of 76.0 to 80.0 ma.-%, b) Si powder, preferably of metallurgical silicon, in an amount of 10.0 to 15.0 ma.-%, preferably of 12 to 14.5 ma.-% c) SiO 2 powder, preferably quartz flour, in an amount of 0.5 to 5.0 ma.- %, preferably of 0.8 to 2.5 ma.-%, d) at least one mealy Mg component made from an Mg-containing raw material, characterized in that the batch comprises an MgO content of 0.1 to 1.0 ma.-%, preferably of 0.15 to 0.8 ma.-%, particularly preferably of 0.2 to 0.4 ma.-%, and that the batch is boron-free. a) an SiC granulation, preferably in an amount of 73.0 to 82.0 ma.-ma.- %, preferably of 76.0 to 80.0 ma.-%, b) Si powder, preferably of metallurgical silicon, in an amount of 10.0 to 15.0 ma.-%, preferably of 12 to 14.5 ma.-% c) SiO 2 powder, preferably quartz flour, in an amount of 0.5 to 5.0 ma.- %, preferably of 0.8 to 2.5 ma.-%, d) at least one mealy Mg component made from an Mg-containing raw material,
A tin-free curable composition which does not contain a metal carboxylate, comprising: one or more organic polymers, each having a reactive-silicon-containing group, represented by the following general formula: -(CR 2 2) 2 -(SiR 1 2-a X a O) m -SiX 3 wherein R 1 s each independently represent a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, or a triorganosiloxy group represented by (R') 3 SiO- wherein R's are each a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, and R's, the number of which is 3, may be the same or different, R 2 s are each independently a hydrogen atom, or a substituted or unsubstituted hydrocarbon group having 1 to 10 carbon atoms, X is an alkoxy group, a is 0, 1 or 2, and m is 0 or an integer of 1 to 19, a silanol condensation catalyst which consists of compound(s) which are amine compound(s) or aryl-substituted biguanides, and wherein the ratio of the organic polymer having the group represented by the general formula in the organic polymer(s) of the component is 10% or more by weight. one or more organic polymers, each having a reactive-silicon-containing group, represented by the following general formula: -(CR 2 2) 2 -(SiR 1 2-a X a O) m -SiX 3 wherein R 1 s each independently represent a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, or a triorganosiloxy group represented by (R') 3 SiO- wherein R's are each a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, and R's, the number of which is 3, may be the same or different, R 2 s are each independently a hydrogen atom, or a substituted or unsubstituted hydrocarbon group having 1 to 10 carbon atoms, X is an alkoxy group, a is 0, 1 or 2, and m is 0 or an integer of 1 to 19, a silanol condensation catalyst which consists of compound(s) which are amine compound(s) or aryl-substituted biguanides, and wherein the ratio of the organic polymer having the group represented by the general formula in the organic polymer(s) of the component is 10% or more by weight. wherein R 1 s each independently represent a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, or a triorganosiloxy group represented by (R') 3 SiO- wherein R's are each a substituted or unsubstituted hydrocarbon group having 1 to 20 carbon atoms, and R's, the number of which is 3, may be the same or different, R 2 s are each independently a hydrogen atom, or a substituted or unsubstituted hydrocarbon group having 1 to 10 carbon atoms, X is an alkoxy group, a is 0, 1 or 2, and m is 0 or an integer of 1 to 19, a silanol condensation catalyst which consists of compound(s) which are amine compound(s) or aryl-substituted biguanides, and wherein the ratio of the organic polymer having the group represented by the general formula in the organic polymer(s) of the component is 10% or more by weight.
A method of inhibiting microbial fouling, the method comprising: providing an aqueous cooling system containing an aqueous liquid having a biocide demand and a first filtration surface having a given porosity and an operating variable being the oxidation reduction potential; treating the aqueous liquid with a biocide; determining the biocide demand of the biocide-treated aqueous liquid by monitoring said operating variable; providing a stream of the biocide-treated aqueous liquid; filtering the stream of the biocide-treated aqueous liquid with the first filtration surface to produce a second stream that is initially returned to the aqueous cooling system, and continuing the filtering and returning until a steady state with respect to the first filtration surface is reached, wherein steady state refers to a situation in which all state variables are statistically constant within a 90% confidence interval of a setpoint or desired value in spite of ongoing factors that strive to change the variables; identifying that the steady state with respect to the first filtration surface has been reached, whereupon the stream of the biocide-treated aqueous liquid is diverted away from the first filtration surface to a second filtration surface having a lower porosity than the first filtration surface; filtering the diverted stream with the second filtration surface to produce a third stream; and returning at least a portion of the third stream to the aqueous cooling system; wherein the state variables are the number of backwash cycles per period of time, oxidation-reduction potential, and biocide dosage. providing an aqueous cooling system containing an aqueous liquid having a biocide demand and a first filtration surface having a given porosity and an operating variable being the oxidation reduction potential; treating the aqueous liquid with a biocide; determining the biocide demand of the biocide-treated aqueous liquid by monitoring said operating variable; providing a stream of the biocide-treated aqueous liquid; filtering the stream of the biocide-treated aqueous liquid with the first filtration surface to produce a second stream that is initially returned to the aqueous cooling system, and continuing the filtering and returning until a steady state with respect to the first filtration surface is reached, wherein steady state refers to a situation in which all state variables are statistically constant within a 90% confidence interval of a setpoint or desired value in spite of ongoing factors that strive to change the variables; identifying that the steady state with respect to the first filtration surface has been reached, whereupon the stream of the biocide-treated aqueous liquid is diverted away from the first filtration surface to a second filtration surface having a lower porosity than the first filtration surface; filtering the diverted stream with the second filtration surface to produce a third stream; and returning at least a portion of the third stream to the aqueous cooling system; wherein the state variables are the number of backwash cycles per period of time, oxidation-reduction potential, and biocide dosage.
A method for monitoring the operation of a metal detection system, said metal detection system being equipped with a balanced coil system comprising a transmitter coil that is connected to a first transmitter unit, which provides a transmitter signal comprising at least a first and a second operating frequency (f TX1, f TX2), and a first and a second receiver coil (22, 23) that provide output signals (s22, s23) to a receiver unit, said output signals (s22, s23) being induced by the transmitter signal and compensating one another in the event that no electro-conductive object is present between the first transmitter coil and the receiver coils (22, 23), characterised in that the metal detection system is further equipped with a second transmitter unit in which: a) a first signal with the first operating frequency (f TX1) and a monitoring signal (s M) with a monitoring frequency (f MON) are applied to inputs of a first modulation unit that outputs a first modulated monitoring signal (s MM1) comprising a first modulated monitoring frequency (f MM1) without a carrier; b) a second signal with the second operating frequency (f TX2) and the monitoring signal (s M) with the monitoring frequency (f MON) are applied to inputs of a second modulation unit that outputs a second modulated monitoring signal (s MM2) comprising a second modulated monitoring frequency (f MM2) without a carrier; wherein the first and the second modulated monitoring signals (s MM1, s MM2) are applied to inputs of a summation unit which is a multiplexer that, in accordance with a multiplexing frequency, alternatingly switches the first modulated monitoring signal (s MM1) and the second modulated monitoring signal (s MM2) to its output, which outputs a combined output signal (s M12) that comprises the two modulated monitoring frequencies (f MM1, f MM2) and that is applied to a monitoring coil that is inductively coupled with at least one of the receiver coils (22; 23), whose output signals (s22, s23) are demodulated in a demodulation unit that provides for each one of the operating frequencies (f TX1, f TX2) a demodulated monitoring signal (s M1; s M2), which are compared in phase and/or in amplitude with a reference, such as the monitoring signal (s M), in order to obtain performance information that is used to monitor the detection process. a) a first signal with the first operating frequency (f TX1) and a monitoring signal (s M) with a monitoring frequency (f MON) are applied to inputs of a first modulation unit that outputs a first modulated monitoring signal (s MM1) comprising a first modulated monitoring frequency (f MM1) without a carrier; b) a second signal with the second operating frequency (f TX2) and the monitoring signal (s M) with the monitoring frequency (f MON) are applied to inputs of a second modulation unit that outputs a second modulated monitoring signal (s MM2) comprising a second modulated monitoring frequency (f MM2) without a carrier;
A carbonitrided bearing part, comprising a chemical composition consisting of, in mass%, C: 0.15 to 0.45%, Si: 0.01 to 0.50%, Mn: 0.40 to 1.50%, P: not more than 0.015%, S: not more than 0.005%, Cr: 0.30 to 2.0%, Mo: 0.10 to 0.35%, V: 0.20 to 0.40%, Al: 0.005 to 0.10%, N: not more than 0.030%, O: not more than 0.0015%, B: 0 to 0.0050%, Nb: 0 to 0.10%, and Ti: 0 to 0.10%, with the balance being Fe and impurities, and satisfying Formulae and, wherein at surface, C concentration is 0.7 to 1.2% and N concentration is 0.15 to 0.6%, and Rockwell hardness HRC at surface is 58 to 65: 1.20 < 0.4 ⁢ Cr + 0.4 ⁢ Mo + 4.5 ⁢ V < 2.60 2.7 ⁢ C + 0.4 ⁢ Si + Mn + 0.8 ⁢ Cr + Mo + V > 2.20 where each symbol of element in Formulae and is substituted by a content (mass%) of a corresponding element.