mhurhangee/ep-ind-claims huggingface dataset:
Method for automatically assembling a connector housing with a contact member (28a, 28b) attached to an electrical line, wherein the connector housing is fixed to a holder and the contact member (28a, 28b) is inserted into a cavity of the connector housing by means of a movable gripper (38a, 38b), wherein prior to inserting the contact member (28a, 28b) into the cavity, an alignment process is carried out comprising the following steps: (i) holding the contact member (28a, 28b), directly or on the electrical line, by means of the gripper (38a, 38b) or a further gripper (32a, 32b); (ii) determining an actual rotational position of the held contact member (28a, 28b) in respect to a rotational axis (Rz) extending parallel to an insertion direction; (iii) comparing the determined actual rotational position with a rotational position predetermined by the structure and arrangement of the connector housing; and (iv) performing a rotational position correction by means of the gripper (32a, 32b) holding the contact member (28a, 28b) based on the result of the comparison, characterized in that holding of the contact member (28a, 28b) in step (i) as well as performing the rotational position correction in step (iv) is performed by means of a rotatable alignment gripper (32a, 32b) which is separated from the gripper (38a, 38b) provided for insertion of the contact member (28a, 28b) into the cavity wherein the contact member (28a, 28b), after performing the rotational position correction in step (iv) while avoiding further rotation, is passed from the alignment gripper (32a, 32b) to the gripper (38a, 38b) provided for insertion of the contact member (28a, 28b) into the cavity. (i) holding the contact member (28a, 28b), directly or on the electrical line, by means of the gripper (38a, 38b) or a further gripper (32a, 32b); (ii) determining an actual rotational position of the held contact member (28a, 28b) in respect to a rotational axis (Rz) extending parallel to an insertion direction; (iii) comparing the determined actual rotational position with a rotational position predetermined by the structure and arrangement of the connector housing; and (iv) performing a rotational position correction by means of the gripper (32a, 32b) holding the contact member (28a, 28b) based on the result of the comparison, characterized in that
A method for differentially detecting a multimeric form from a monomeric form of a multimer-forming polypeptide in a biosample, which comprises the steps of: (a) preparing a carrier-capturing antibody conjugate by binding a capturing antibody to the surface of a solid phase carrier, wherein the capturing antibody is capable of recognizing an epitope on the multimer-forming polypeptide; (b) preparing a detection antibody, wherein the amino acid sequence of the epitope recognized by the capturing antibody is completely or partially overlapped with and not identical to that of the epitope recognized by the detection antibody so that capturing antibody and detection antibody when bound to their epitopes induce steric hindrance or are competitive in binding; wherein the epitope recognized by the capturing antibody and the epitope recognized by the detection antibody are not repeated in the multimer-forming polypeptide; wherein the detection antibody has a label generating signal; (c) contacting simultaneously the carrier-capturing antibody conjugate and the detection antibody to the biosample; (d) separating carrier-capturing antibody-multimeric form-detection antibody complexes and carrier-capturing antibody-monomeric form complexes, from detection antibody-monomeric form complexes by washing out detection antibody-monomeric form complexes; and (e) detecting the formation of a carrier-capturing antibody-multimeric form-detection antibody complex by measuring a signal generated from the label linked to the detection antibody. (a) preparing a carrier-capturing antibody conjugate by binding a capturing antibody to the surface of a solid phase carrier, wherein the capturing antibody is capable of recognizing an epitope on the multimer-forming polypeptide; (b) preparing a detection antibody, wherein the amino acid sequence of the epitope recognized by the capturing antibody is completely or partially overlapped with and not identical to that of the epitope recognized by the detection antibody so that capturing antibody and detection antibody when bound to their epitopes induce steric hindrance or are competitive in binding; wherein the epitope recognized by the capturing antibody and the epitope recognized by the detection antibody are not repeated in the multimer-forming polypeptide; wherein the detection antibody has a label generating signal; (c) contacting simultaneously the carrier-capturing antibody conjugate and the detection antibody to the biosample; (d) separating carrier-capturing antibody-multimeric form-detection antibody complexes and carrier-capturing antibody-monomeric form complexes, from detection antibody-monomeric form complexes by washing out detection antibody-monomeric form complexes; and (e) detecting the formation of a carrier-capturing antibody-multimeric form-detection antibody complex by measuring a signal generated from the label linked to the detection antibody.
A device comprising at least one circulating zone and at least one fluid comprising at least one more-paramagnetic liquid and at least one less-paramagnetic liquid forming a liquid-liquid interphase, said device comprising at least one element generating, in said circulating zone, a magnetic field, wherein said less-paramagnetic liquid is surrounded by said more-paramagnetic liquid in the circulating zone, said less-paramagnetic liquid circulating in the more-paramagnetic liquid and forming a tube in said more-paramagnetic liquid, the magnetic field being theoretically null along the central axis of the tube, wherein said less-paramagnetic liquid is forced to flow within said more-paramagnetic liquid, and wherein said less-paramagnetic liquid circulates inside said circulating zone without contact with a solid wall.
An edible composition comprising tomato ketchup, the edible composition having a base comprising fruit and/or vegetable matter with a fibrous matrix and a water immiscible nutritional supplement held within the fibrous matrix, the nutritional supplement comprising an oil, the oil being rich in Omega 3 fatty acids, wherein the nutritional supplement is in the form of droplets, the majority of which have an external diameter of less than 30 microns.
Device for processing packaging material, in particular cardboard blanks, comprising: a first folding apparatus for folding and/or creasing a packaging material and a second folding apparatus for folding and/or creasing the packaging material, and at least one transport apparatus (60, 70) for transporting a packaging material relative to the first and/or second folding apparatus (40, 50), wherein the first and second folding apparatus (40, 50) can be shifted independently of one another, preferably transversely to the throughput direction, characterised in that the device comprises a controller, which is configured to shift the first folding apparatus, in particular transversely to the throughput direction, while the second folding apparatus is processing a packaging material folded and/or creased by the first folding apparatus. a first folding apparatus for folding and/or creasing a packaging material and a second folding apparatus for folding and/or creasing the packaging material, and at least one transport apparatus (60, 70) for transporting a packaging material relative to the first and/or second folding apparatus (40, 50), wherein the first and second folding apparatus (40, 50) can be shifted independently of one another, preferably transversely to the throughput direction, characterised in that the device comprises a controller, which is configured to shift the first folding apparatus, in particular transversely to the throughput direction, while the second folding apparatus is processing a packaging material folded and/or creased by the first folding apparatus.
A galvanized steel sheet having a chemical composition containing, by mass%, C: 0.08% to 0.20%, Si: 0.5% or less, Mn: 0.8% to 1.8%, P: 0.10% or less, S: 0.030% or less, A1: 0.10% or less, N: 0.010% or less, one, two, or all of Ti: 0.01% to 0.3%, Nb: 0.01% to 0.1%, and V: 0.01% to 1.0%, in which C* derived by using equation below is 0.07 or more, optionally one, two, or all of Mo: 0.005% to 0.50%, Ta: 0.005% to 0.50%, and W: 0.005% to 0.50%, optionally one, two, or all of Cr: 0.01% to 1.0%, Ni: 0.01% to 1.0%, and Cu: 0.01% to 1.0%, optionally one or both of Ca: 0.0005% to 0.01% and REM: 0.0005% to 0.01%, optionally Sb: 0.005% to 0.050%, optionally B: 0.0005% to 0.0030%, and a balance of Fe and inevitable impurities, and a microstructure including a ferrite phase and a tempered bainite phase in a total amount of 95% or more in terms of area ratio, wherein an average grain diameter of the microstructure is 5.0 μm or less, wherein an amount of Fe precipitated in the form of cementite is 0.10 mass% or more, wherein an amount of Ti, Nb, and V precipitated in a form of precipitates having a grain diameter of less than 20 nm is 0.025 mass% or more in terms of precipitate C equivalent derived by using formula below, and wherein half or more of precipitates having a grain diameter of less than 20 nm are formed at random: C * = Ti / 48 + Nb / 93 + V / 51 × 12 where, the atomic symbols in equation respectively denote the contents (mass%) of the corresponding elements, Ti / 48 + Nb / 93 + V / 51 × 12 where, [Ti], [Nb], and in equation respectively denote the amounts (mass%) of Ti, Nb, and V precipitated in the form of precipitates having a grain diameter of less than 20 nm, the microstructural properties are measured as disclosed in the description. C: 0.08% to 0.20%, Si: 0.5% or less, Mn: 0.8% to 1.8%, P: 0.10% or less, S: 0.030% or less, A1: 0.10% or less, N: 0.010% or less, one, two, or all of Ti: 0.01% to 0.3%, Nb: 0.01% to 0.1%, and V: 0.01% to 1.0%, in which C* derived by using equation below is 0.07 or more, Mo: 0.005% to 0.50%, Ta: 0.005% to 0.50%, and W: 0.005% to 0.50%, Cr: 0.01% to 1.0%, Ni: 0.01% to 1.0%, and Cu: 0.01% to 1.0%, Ca: 0.0005% to 0.01% and REM: 0.0005% to 0.01%,
A turning drive device that converts power of an engine into electric power and turns a turning body using the converted electric power, the turning drive device comprising: an operation device including a lever (26A, 26B), an electrical energy storage unit that stores electrical energy; a turning motor that is driven by an electric power from the electrical energy storage unit and is configured to drive a turning body; an inverter that controls a drive operation of the turning motor; a controller that is connected to the inverter via a control signal line and that is arranged to convert a signal received from the operation device indicating the operational amount when the operation device is operated into a speed command and to perform a drive control of the turning motor using the speed command and which transmits the control signal to the inverter via the control signal line; and an emergency operation part that is operable by an operator to supply a signal for driving the turning motor to the inverter, wherein the emergency operation part is configured so that it is operable even in a case where an abnormality occurs at the controller such that the turning motor cannot be controlled by the controller. an operation device including a lever (26A, 26B), an electrical energy storage unit that stores electrical energy; a turning motor that is driven by an electric power from the electrical energy storage unit and is configured to drive a turning body; an inverter that controls a drive operation of the turning motor; a controller that is connected to the inverter via a control signal line and that is arranged to convert a signal received from the operation device indicating the operational amount when the operation device is operated into a speed command and to perform a drive control of the turning motor using the speed command and which transmits the control signal to the inverter via the control signal line; and an emergency operation part that is operable by an operator to supply a signal for driving the turning motor to the inverter, wherein the emergency operation part is configured so that it is operable even in a case where an abnormality occurs at the controller such that the turning motor cannot be controlled by the controller.
A radial foil bearing for supporting a rotary shaft by being externally attached to the rotary shaft, the radial foil bearing comprising: a cylindrical top foil disposed so as to face the rotary shaft; a back foil disposed on a radially outer side of the top foil; and a cylindrical bearing housing accommodating the top foil and the back foil inside the bearing housing, wherein the top foil is formed by winding a rectangular metal foil into a cylindrical shape so that a first end of the metal foil is extended out in a tangential direction of a cylinder formed by the metal foil, wherein an engagement groove is formed on an inner circumferential surface of the bearing housing in an axial direction of the bearing housing, wherein the engagement groove is formed so that a depth direction thereof corresponds to one tangential direction of the cylinder of the top foil, wherein the first end extending out in the tangential direction of the cylinder of the top foil engages with the engagement groove, and wherein the top foil is thinner at each of its ends than it is at the intermediate portion between its ends. a cylindrical top foil disposed so as to face the rotary shaft; a back foil disposed on a radially outer side of the top foil; and a cylindrical bearing housing accommodating the top foil and the back foil inside the bearing housing, wherein the top foil is formed by winding a rectangular metal foil into a cylindrical shape so that a first end of the metal foil is extended out in a tangential direction of a cylinder formed by the metal foil, wherein an engagement groove is formed on an inner circumferential surface of the bearing housing in an axial direction of the bearing housing, wherein the engagement groove is formed so that a depth direction thereof corresponds to one tangential direction of the cylinder of the top foil, wherein the first end extending out in the tangential direction of the cylinder of the top foil engages with the engagement groove, and wherein the top foil is thinner at each of its ends than it is at the intermediate portion between its ends.
An assembly of matter selected from insulation products comprising mineral fibers and composite wood boards comprising cellulosic particle or sheet material, bonded together by a curable binder composition comprising a polysaccharide and an azetidinium crosslinker and possibly reaction product resulting from the cross-linking between polysaccharide and azetidinium crosslinker, or by a binder obtained by subjecting to curing conditions an aqueous curable binder composition comprising a polysaccharide and an azetidinium crosslinker and possibly reaction product resulting from the cross-linking between polysaccharide and azetidinium crosslinker, wherein the weight ratio on a dry basis of polysaccharide to azetidinium cross-linker is comprised between 99/1 to 60/40.
A method of identifying a heterogeneous renal cell population suitable for implantation and/or eliciting a regenerative response, said method comprising the steps: isolating cells from a mammalian kidney sample; exposing a sample of said isolated cells to labeled detection moieties, wherein each labeled detection moiety is directed to a different biomarker and is labeled with a different label, wherein the biomarkers detected comprise GGT-1, a cytokeratin, VEGF and KIM-1; determining the percentage of cells in the sample that express GGT-1 and the CK; and determining whether the sample comprises cells that secrete VEGF and KIM-1 in the culture medium; wherein the isolated cells are identified as a heterogeneous renal cell population suitable for implantation and/or eliciting a regenerative response if: (i) greater than 4.5 percent of cells in the sample express GGT-1, (ii) greater than 80% of cells in the sample express the CK, and (iii) the sample comprises cells that express VEGF and KIM-1 in the culture medium. isolating cells from a mammalian kidney sample; exposing a sample of said isolated cells to labeled detection moieties, wherein each labeled detection moiety is directed to a different biomarker and is labeled with a different label, wherein the biomarkers detected comprise GGT-1, a cytokeratin, VEGF and KIM-1; determining the percentage of cells in the sample that express GGT-1 and the CK; and determining whether the sample comprises cells that secrete VEGF and KIM-1 in the culture medium; wherein the isolated cells are identified as a heterogeneous renal cell population suitable for implantation and/or eliciting a regenerative response if: (i) greater than 4.5 percent of cells in the sample express GGT-1, (ii) greater than 80% of cells in the sample express the CK, and (iii) the sample comprises cells that express VEGF and KIM-1 in the culture medium.
A curtain assembly consisting of a curtain and associated fastening means for forming the front side of a piglet box for raising piglets, wherein the piglet box has a bottom, a back wall, two side walls (3, 4) and a free front, and a box lid hinged to the back, wherein the curtain is executed to be at least double-walled and in its interior encloses a layer of air as a heat insulating layer, wherein the curtain consists of a plastic foil, and wherein the curtain runs out at the bottom in the form of a series of vertical, hanging strips placed side by side in a row, characterized in that the curtain has welded edges for forming at least a double wall, so that an air cushion is enclosed in the interior, and that it can be releasably fastened to the box lid, for which purpose a profile with a continuous slot is releasably attached to the front edge of the box lid, and the curtain forms a loop at its upper edge into which a support pipe belonging to the fastening means can be inserted, and the loop with the support pipe can be introduced into the slot of said profile from the front side.
An Ethernet port configuration system, comprising: a cable detection component in a physical layer (130-N), said cable detection component configured to measure an electrical characteristic and length of an Ethernet cable coupled to said physical layer; characterized by a controller configured to determine a type of said Ethernet cable based on said measured electrical characteristic and length, said controller being operative to configure an Ethernet port based on said determined Ethernet cable type, wherein said electrical characteristic comprises insertion loss at a predetermined frequency or cross talk at said predetermined frequency. a cable detection component in a physical layer (130-N), said cable detection component configured to measure an electrical characteristic and length of an Ethernet cable coupled to said physical layer; characterized by a controller configured to determine a type of said Ethernet cable based on said measured electrical characteristic and length, said controller being operative to configure an Ethernet port based on said determined Ethernet cable type, wherein said electrical characteristic comprises insertion loss at a predetermined frequency or cross talk at said predetermined frequency.
A system comprising: a laser light source configured to emit a laser beam to an object; and a laser beam steering device configured to steer the emitted laser beam incident thereon, comprising: a refractive index change layer having a refractive index that changes based on an electrical signal; at least one antenna pattern disposed above the refractive index change layer; a further layer disposed under the refractive index change layer; and a driver configured to apply the electrical signal to the refractive index change layer; characterized in that the further layer is a wavelength selection layer whose carrier density is such as to cause the layer to resonate at the wavelength of the laser beam. a laser light source configured to emit a laser beam to an object; and a laser beam steering device configured to steer the emitted laser beam incident thereon, comprising: a refractive index change layer having a refractive index that changes based on an electrical signal; at least one antenna pattern disposed above the refractive index change layer; a further layer disposed under the refractive index change layer; and a driver configured to apply the electrical signal to the refractive index change layer; a refractive index change layer having a refractive index that changes based on an electrical signal; at least one antenna pattern disposed above the refractive index change layer; a further layer disposed under the refractive index change layer; and a driver configured to apply the electrical signal to the refractive index change layer; characterized in that the further layer is a wavelength selection layer whose carrier density is such as to cause the layer to resonate at the wavelength of the laser beam.
A compressor assembly for supplying a pressure medium to a tire cavity of a tire of a vehicle wheel that is mountable on a wheel hub, which is rotatably supported about an axis of rotation on a wheel carrier, wherein the compressor assembly comprises a hub-side compression chamber and a compressor component, wherein a pressure medium to be conducted into the tire cavity can be subjected to pressure in the compression chamber through oscillating translational movement of the compressor component, wherein the compressor assembly comprises a gear, preferably a cam gear, which is set up in order to convert a rotational movement between the wheel carrier side and the wheel hub side into an oscillating translational movement of the compressor component when a hub-side gear part is in an operative position with a wheel carrier-side gear part, wherein the compressor component is rigidly connected to the hub-side gear part, characterized in that the compressor assembly comprises a magnet-based decoupling device via which the hub-side gear part can be held out of the operative position with the wheel carrier-side gear part and/or is moveable out of the operative position with the wheel carrier-side gear part, and/or the compressor assembly comprises a magnet-based coupling device via which the hub-side gear part can be held in the operative position with the wheel carrier-side gear part and/or is moveable into the operative position with the wheel carrier-side gear part, wherein a permanent magnet is disposed in the compressor component, or wherein the compressor component comprises a ferromagnetic material, and/or wherein at least one permanent magnet, preferably a series of permanent magnets, is disposed in a circumferential wall of the compression chamber. the compressor assembly comprises a magnet-based decoupling device via which the hub-side gear part can be held out of the operative position with the wheel carrier-side gear part and/or is moveable out of the operative position with the wheel carrier-side gear part, and/or the compressor assembly comprises a magnet-based coupling device via which the hub-side gear part can be held in the operative position with the wheel carrier-side gear part and/or is moveable into the operative position with the wheel carrier-side gear part, wherein a permanent magnet is disposed in the compressor component, or wherein the compressor component comprises a ferromagnetic material, and/or wherein at least one permanent magnet, preferably a series of permanent magnets, is disposed in a circumferential wall of the compression chamber.