mhurhangee/ep-ind-claims huggingface dataset:
A melting-processed resin article having a layer separation structure, comprising: a first resin layer comprising a first resin; a second resin layer comprising a second resin formed on the first resin layer, and an interface layer including the first resin and the second resin and formed between the first resin layer and the second resin layer, wherein a component of the first resin is detected on a surface of the second resin layer by infrared spectrometry, wherein the first resin includes at least one resin selected from the group consisting of a styrene-based resin, an acrylate-based resin and a copolymer thereof, and wherein the second resin includes a (meth)acrylate-based resin, wherein the (meth)acrylate-based resin includes glycidyl methacrylate, perfluorohexylethyl methacrylate or tertiary butyl methacrylate in a polymerized form wherein the layer separation structure is obtained by a layer separation caused by a difference in surface energy, melt viscosity or solubility parameters between the first resin and the second resin, wherein the second resin layer has a thickness of 0.01 to 60% based on the total thickness of the resin article, and, wherein the second resin layer has a molecular weight distribution of 1 to 2.5. a first resin layer comprising a first resin; a second resin layer comprising a second resin formed on the first resin layer, and an interface layer including the first resin and the second resin and formed between the first resin layer and the second resin layer, wherein a component of the first resin is detected on a surface of the second resin layer by infrared spectrometry, wherein the first resin includes at least one resin selected from the group consisting of a styrene-based resin, an acrylate-based resin and a copolymer thereof, and wherein the second resin includes a (meth)acrylate-based resin, wherein the (meth)acrylate-based resin includes glycidyl methacrylate, perfluorohexylethyl methacrylate or tertiary butyl methacrylate in a polymerized form wherein the layer separation structure is obtained by a layer separation caused by a difference in surface energy, melt viscosity or solubility parameters between the first resin and the second resin, wherein the second resin layer has a thickness of 0.01 to 60% based on the total thickness of the resin article, and, wherein the second resin layer has a molecular weight distribution of 1 to 2.5.
System (30, 60, 70, 85) for measuring the group delay of an antenna to be measured which is capable of functioning in transmitting mode and/or in receiving mode for an electromagnetic wave of given polarisation, the system comprising an emitting antenna (62, 80) and a receiving antenna (64, 78), the antennas being connected to an antenna measuring instrument (48, 70, 82, 96), comprising a reflection system (34, 66, 72, 91), said reflection system being a polarisation-conserving system, comprising at least two elements which affect the path of the electromagnetic wave, positioned in the viewing direction of the antennas, at a predetermined distance from a transmitting or receiving reference plane of the antenna to be measured, characterised in that the reflection system (34, 66, 72, 91) is capable of reflecting an incident circularly polarised electromagnetic wave having a given direction of polarisation as a reflected circularly polarised electromagnetic wave having the same direction of polarisation as the incident electromagnetic wave, the polarisation-conserving reflection system being a conducting dihedron (34, 66) having a central edge, and the viewing direction of each of the antennas pointing towards the central edge of the dihedron.
A gas lift pump apparatus for use in a liquid storage tank, the apparatus comprising: a column configured to be disposed within the liquid storage tank so as to be at least partially immersed in a liquid medium therein and having in use a substantially upright portion through which the liquid medium may be pumped by gas lift; and a fluid delivery device for delivering a flow of a gaseous fluid into the column at a first location of the column; characterised in that: the column comprises a lift portion having a substantially continuous, unperforated wall (160 UP, 260 UP, 460 UP, 560 UP) and a perforated portion being a portion having a perforated wall (160 P, 260 P, 460 P, 560 P), the lift portion of the column extending between the first location and the perforated portion of the column; the fluid delivery device is operable to deliver the flow of gaseous fluid into the column such that the gaseous fluid rises through the lift portion a first distance before entering the perforated portion; the fluid delivery device comprises a sonic energy generator operable to launch sonic energy into a liquid medium flowing through the column; and the apparatus comprises a bubble generator operable to provide gas bubbles in liquid in the column, the apparatus being operable to subject the bubbles to sonic energy generated by the sonic energy generator. a column configured to be disposed within the liquid storage tank so as to be at least partially immersed in a liquid medium therein and having in use a substantially upright portion through which the liquid medium may be pumped by gas lift; and a fluid delivery device for delivering a flow of a gaseous fluid into the column at a first location of the column; the column comprises a lift portion having a substantially continuous, unperforated wall (160 UP, 260 UP, 460 UP, 560 UP) and a perforated portion being a portion having a perforated wall (160 P, 260 P, 460 P, 560 P), the lift portion of the column extending between the first location and the perforated portion of the column; the fluid delivery device is operable to deliver the flow of gaseous fluid into the column such that the gaseous fluid rises through the lift portion a first distance before entering the perforated portion; the fluid delivery device comprises a sonic energy generator operable to launch sonic energy into a liquid medium flowing through the column; and the apparatus comprises a bubble generator operable to provide gas bubbles in liquid in the column, the apparatus being operable to subject the bubbles to sonic energy generated by the sonic energy generator.
An implantable microphone, comprising: a housing; a diaphragm sealably positioned across a recessed surface of said housing, wherein said diaphragm defines a reference plane; a chamber defined collectively by said recessed surface and said diaphragm; a pressure sensitive element operatively interconnected to said chamber for detecting pressure fluctuations and generating an audio output signal; and a port forming a communicating lumen between the chamber and the pressure sensitive microphone element, wherein said chamber has a first volume when said diaphragm is in a static position and said chamber has a second volume when said diaphragm is deflected in response to a predetermined pressure differential, and a depth of the recessed surface varies relative to the reference plane across a portion of a width of the recessed surface when said diaphragm is at said static position, characterized in that a ratio of said second volume divided by said first volume is less than 0.4, wherein the recessed surface 70 has an initial depth D at the peripheral edge 72 of the diaphragm 30, a depth of the remainder of the recessed surface increases to the center of the diaphragm, wherein, at a first distance L1 from the peripheral edge 72, the recessed surface has a depth of D1 that is greater than the initial depth D and, at a second location L2 from the peripheral edge 72, where L2 is greater than L1, the recessed surface has a depth of D2 that is greater than D1. a housing; a diaphragm sealably positioned across a recessed surface of said housing, wherein said diaphragm defines a reference plane; a chamber defined collectively by said recessed surface and said diaphragm; a pressure sensitive element operatively interconnected to said chamber for detecting pressure fluctuations and generating an audio output signal; and a port forming a communicating lumen between the chamber and the pressure sensitive microphone element, wherein said chamber has a first volume when said diaphragm is in a static position and said chamber has a second volume when said diaphragm is deflected in response to a predetermined pressure differential, and a depth of the recessed surface varies relative to the reference plane across a portion of a width of the recessed surface when said diaphragm is at said static position, characterized in that a ratio of said second volume divided by said first volume is less than 0.4, wherein the recessed surface 70 has an initial depth D at the peripheral edge 72 of the diaphragm 30, a depth of the remainder of the recessed surface increases to the center of the diaphragm, wherein, at a first distance L1 from the peripheral edge 72, the recessed surface has a depth of D1 that is greater than the initial depth D and, at a second location L2 from the peripheral edge 72, where L2 is greater than L1, the recessed surface has a depth of D2 that is greater than D1.
A heat receiving structure comprising: a heat pipe sandwiched by heat receiving members (7, 8, 28) from the left side and the right side of the heat pipe, and the heat pipe joined to the heat receiving members (7, 8, 28); wherein a heat receiving plate that is connected to heat receiving faces of the heat receiving members (7, 8, 28) and the heat pipe contacts with both, the left and right heat receiving members (7, 8, 28) and the heat pipe, elements of the left and right heat receiving members (7, 8, 28) and the heat pipe being disposed on the heat receiving plate, and a heating element is arranged so that it is thermally coupled to said heat receiving plate, wherein at least one of the heat receiving members (7, 8) at the respective left or right side face of the heat pipe includes a concave inner face (7A, 8A) that is along an external shape of the heat pipe, wherein the concave inner face (7A, 8A) of the at least one heat receiving member (7, 8) defines extended portions (11, 12) and characterized in that the extended portions (11, 12) extend parallel to the surface of the heat receiving plate and along the external shape of the heat pipe while covering the heat pipe, wherein the heat receiving plate, the heating element and the heat receiving members (7, 8, 28) are provided as separate parts, wherein the extended portions (11, 12) of the at least one heat receiving member (7, 8) are arranged to conduct the heat received from the heat receiving plate into the left or right side of the side face of the heat pipe, and wherein the heat receiving members (7, 8, 28) have a block shape. a heat pipe sandwiched by heat receiving members (7, 8, 28) from the left side and the right side of the heat pipe, and the heat pipe joined to the heat receiving members (7, 8, 28); wherein a heat receiving plate that is connected to heat receiving faces of the heat receiving members (7, 8, 28) and the heat pipe contacts with both, the left and right heat receiving members (7, 8, 28) and the heat pipe, elements of the left and right heat receiving members (7, 8, 28) and the heat pipe being disposed on the heat receiving plate, and a heating element is arranged so that it is thermally coupled to said heat receiving plate, wherein at least one of the heat receiving members (7, 8) at the respective left or right side face of the heat pipe includes a concave inner face (7A, 8A) that is along an external shape of the heat pipe, wherein the concave inner face (7A, 8A) of the at least one heat receiving member (7, 8) defines extended portions (11, 12) and characterized in that the extended portions (11, 12) extend parallel to the surface of the heat receiving plate and along the external shape of the heat pipe while covering the heat pipe, wherein the heat receiving plate, the heating element and the heat receiving members (7, 8, 28) are provided as separate parts, wherein the extended portions (11, 12) of the at least one heat receiving member (7, 8) are arranged to conduct the heat received from the heat receiving plate into the left or right side of the side face of the heat pipe, and wherein the heat receiving members (7, 8, 28) have a block shape.
An antenna device comprising: a base; an antenna element; an electrical connector at the base; a matching circuit removably positioned between the electrical connector and the antenna element, the electrical connector and the antenna element in electrical communication via the matching circuit; and a metal shell removably attached to the base, the metal shell surrounding and protecting the matching circuit, wherein the base comprises threads that extend towards the matching circuit, and the metal shell comprises complementary threads that removably mate with the threads of the base, the metal shell being removably attached to the base via the complementary threads and the threads of the base, and wherein the metal shell is formed from metal, the metal shell being electrically isolated from the antenna element, the electrical connector and the matching circuit. a base; an antenna element; an electrical connector at the base; a matching circuit removably positioned between the electrical connector and the antenna element, the electrical connector and the antenna element in electrical communication via the matching circuit; and a metal shell removably attached to the base, the metal shell surrounding and protecting the matching circuit, wherein the base comprises threads that extend towards the matching circuit, and the metal shell comprises complementary threads that removably mate with the threads of the base, the metal shell being removably attached to the base via the complementary threads and the threads of the base, and wherein the metal shell is formed from metal, the metal shell being electrically isolated from the antenna element, the electrical connector and the matching circuit.
An antiperspirant composition comprising (i) a complex of a zinc salt with a β amino alcohol; and (ii) an anhydrous carrier comprising a mixture of ethanol and a C 2 to C 4 glycol. (i) a complex of a zinc salt with a β amino alcohol; and (ii) an anhydrous carrier comprising a mixture of ethanol and a C 2 to C 4 glycol.
Date mechanism comprising a date wheel assembly provided with a toothing of 31 teeth, a date display controlled by the date wheel assembly, a driving wheel assembly arranged to drive the date wheel assembly and bearing a first finger and a second finger which are offset angularly and in height, the first finger being arranged to drive by one step each day one of the teeth of the date wheel assembly, a month cam freely mounted to pivot concentrically with the date wheel assembly and arranged to turn by one twelfth of a turn for each turn effected by the date wheel assembly, the date wheel assembly bearing a lever arm provided with a tooth, the lever arm being arranged to occupy either an active position or an inactive position according to the angular position of the month cam, the tooth of the lever arm being arranged to be located on the trajectory of the second finger of the driving wheel assembly when the lever arm occupies the active position and the date display displays the "30"; characterised in that the first finger and the second finger are fixedly attached to the driving wheel assembly, in that said tooth of the lever arm is a tooth for forwards driving, and in that the lever arm is also provided with a tooth for backwards driving arranged to be located on the trajectory of the second finger of the driving wheel assembly when the lever arm occupies the position active and the date display displays the "31".
A method of operating a chromatography column in methods of manufacture for producing anti-IL-12/IL-23p40 antibodies, specific pharmaceutical compositions of the antibodies, and antigen binding fragments thereof, wherein the anti-IL-12/IL-23p40 antibodies comprise amino acid sequences selected from the group consisting of: (i) a heavy chain comprising the amino acid sequence of SEQ ID NO:10 and a light chain comprising the amino acid sequence of SEQ ID NO:11; (ii) a heavy chain variable domain amino acid sequence of SEQ ID NO:7 and a light chain variable domain amino acid sequence of SEQ ID NO:8; and (iii) heavy chain CDR amino acid sequences of SEQ ID NO:1, SEQ ID NO:2, and SEQ ID NO:3, and light chain CDR amino acid sequences of SEQ ID NO:4, SEQ ID NO:5, and SEQ ID NO:6, said method comprising: collecting column outlet signal and accumulated flow parameters at two or more intervals of at least one mobile phase transition front during a first operation of the chromatography column comprising column packing; determining a model gamma cumulative distribution curve based on the collected column outlet signal and accumulated flow parameters for the at least one mobile phase transition front using Formula Ia for a rising transition front or Formula Ib for a falling transition front, C = 1 − 1 Γ k γ k V − V i θ or C = 1 Γ k γ k V − V i θ wherein C is column outlet signal for a given V, V is the accumulated flow divided by the column volume, and k, θ, and V i are the shape, scale and offset parameters used to define the curve; calculating a height equivalent theoretical plate (HETP) value for the at least one mobile phase transition front using Formula II and the model gamma cumulative distribution curve parameters of k, θ, and V i, HETP = σ 2 μ 2 L wherein μ = kθ + V i σ = kθ 2 L = column length; and assessing quality of the chromatography column packing based on said calculated HETP value. collecting column outlet signal and accumulated flow parameters at two or more intervals of at least one mobile phase transition front during a first operation of the chromatography column comprising column packing; determining a model gamma cumulative distribution curve based on the collected column outlet signal and accumulated flow parameters for the at least one mobile phase transition front using Formula Ia for a rising transition front or Formula Ib for a falling transition front, C = 1 − 1 Γ k γ k V − V i θ or C = 1 Γ k γ k V − V i θ wherein C is column outlet signal for a given V, V is the accumulated flow divided by the column volume, and k, θ, and V i are the shape, scale and offset parameters used to define the curve; calculating a height equivalent theoretical plate (HETP) value for the at least one mobile phase transition front using Formula II and the model gamma cumulative distribution curve parameters of k, θ, and V i, HETP = σ 2 μ 2 L wherein μ = kθ + V i σ = kθ 2 L = column length; and assessing quality of the chromatography column packing based on said calculated HETP value.
A polyphenol-rich extract of avocado fruit, containing at least 10% by weight of polyphenols and advantageously between 10 and 30% by weight of polyphenols, expressed in gallic acid equivalents in relation to the dry extract obtained, said polyphenols containing a mixture of procyanidins, caffeic acid and derivatives of caffeic acid, in a proportion of at least 70% by weight, expressed in gallic acid equivalents in relation to the total polyphenols content by weight, and further including at least 10%, advantageously from 10 to 60% avocado sugars, said sugars containing at least D-mannoheptulose and/or perseitol, the percentages being expressed by weight in relation to the weight of the dry extract, characterized in that it is obtainable by extraction of avocado fruits that first have been dried, under gentle conditions, then delipidated, and in that it is obtainable by solid-liquid extraction of a portion of the avocado fruit in a solvent consisting of a binary mixture of solvents of the water type and a solvent selected from glycerol or a glycol such as propanediol.
Façade panel screw - comprising a head with diameter D K, - and a substantially cylindrical cross-sectional, longitudinally expanded shank having a nominal diameter D S, - wherein the surface of the shank is at least partially provided with an at least two-start thread; - and a cone-shaped tip having a tip angle γ, wherein the thread extends continuously from the shank to the tip, - and has no drill point, wherein - the tip angle γ is 45° +/-5°, - the head diameter D K is designed at least twice as large as the nominal diameter D S; and the façade panel screw further comprises - a threadless underhead portion (19, 39) on the shank (14, 34), and - a stop collar arranged on the shank between the thread and the threadless underhead portion. - comprising a head with diameter D K, - and a substantially cylindrical cross-sectional, longitudinally expanded shank having a nominal diameter D S, - wherein the surface of the shank is at least partially provided with an at least two-start thread; - and a cone-shaped tip having a tip angle γ, wherein the thread extends continuously from the shank to the tip, - and has no drill point, wherein - the tip angle γ is 45° +/-5°, - the head diameter D K is designed at least twice as large as the nominal diameter D S; and the façade panel screw further comprises - a threadless underhead portion (19, 39) on the shank (14, 34), and - a stop collar arranged on the shank between the thread and the threadless underhead portion.
A method for continuously casting a slab that is used as a material for manufacturing heavy gauge steel plate by hot-rolling, the method comprising: using two pairs of reduction rolls, the pairs being arranged separately from each other with an interval between the pairs in a range from 3 m to 7 m, between the pairs a support roll being arranged; carrying out reduction on a slab by 3 to 15 mm with one pair of the reduction rolls located at a first stage under a condition where the slab includes an unsolidified portion with a solid-phase ratio of a central part of the slab in a thickness direction in a range from 0.8 to less than 1; and further carrying out reduction on the slab with another pair of the reduction rolls located at a second stage under a condition where the slab is completely solidified. using two pairs of reduction rolls, the pairs being arranged separately from each other with an interval between the pairs in a range from 3 m to 7 m, between the pairs a support roll being arranged; carrying out reduction on a slab by 3 to 15 mm with one pair of the reduction rolls located at a first stage under a condition where the slab includes an unsolidified portion with a solid-phase ratio of a central part of the slab in a thickness direction in a range from 0.8 to less than 1; and further carrying out reduction on the slab with another pair of the reduction rolls located at a second stage under a condition where the slab is completely solidified.
Metal-ion electrochemical battery, such as a Li-ion battery, comprising at least one electrochemical cell C comprising, a cathode, an anode and a separator (1, 11, 12, 13), impregnated with an electrolyte, between the anode and the cathode, the separator comprising a stack of the following elements: - two membranes made of an electrically insulating and ion-conducting material, one of the membranes being in direct contact with the anode, the other of the membranes being in direct contact with the cathode; - an electrically conductive structure; - at least one component for storing metal ions that is incorporated into or is in direct contact with the structure, the structure and the at least one storage component being intercalated between the two membranes. - two membranes made of an electrically insulating and ion-conducting material, one of the membranes being in direct contact with the anode, the other of the membranes being in direct contact with the cathode; - an electrically conductive structure; - at least one component for storing metal ions that is incorporated into or is in direct contact with the structure, the structure and the at least one storage component being intercalated between the two membranes.