mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator fan device, in particular for ultra-low temperature refrigerators, comprising a fan motor which has a fan rotor and which is provided in an air duct between an air inlet , a refrigerator heat exchanger , and/or a refrigerator compressor and an air outlet on or in a refrigerator housing , said fan motor being connected to a unit of the refrigerator, in particular to the refrigerator compressor and/or to refrigerator control electronics, via electrical supply and/or control lines, the fan motor being realized as a brushless speed-controllable DC motor whose operating speed is controlled as a function of an operating and/or used cooling space temperature signal of, in particular, the assigned refrigerator compressor, characterized by delay means which act on the assigned refrigerator compressor and which are configured such that in response to an activation signal and/or operation start signal, the fan motor is activated a predetermined time interval prior to activation of the refrigerator compressor and that corresponding vapors are emitted or diluted by means of the fan airflow prior to an activation of the compressor in order to prevent the risks associated with leaking refrigerating agents.
Method for replacing a valve connected to a well head (WH), wherein the valve is a chemical injection valve (CIV) connected to the well head (WH) via an injection line housing (ILH), where an end (ILE) of an injection line (IL) is provided within the injection line housing (ILH), where the method comprises the steps of: - connecting an injection line plugging tool to the chemical injection valve (CIV); - providing threads in the end (ILE) of the injection line (IL) by means of the injection line plugging tool ; - connecting an injection line plug to the threads of the injection line (IL) by means of the injection line plugging tool ; - disconnecting the chemical injection valve (CIV) from the injection line housing (ILH); - connecting a further chemical injection valve (CIV) to the injection line housing (ILH); - connecting the injection line plugging tool to the further chemical injection valve (CIV); - removing the injection line plug from the end (ILE) of the injection line (IL) by means of the injection line plugging tool ; - disconnecting the injection line plugging tool from the further chemical injection valve (CIV). - connecting an injection line plugging tool to the chemical injection valve (CIV); - providing threads in the end (ILE) of the injection line (IL) by means of the injection line plugging tool ; - connecting an injection line plug to the threads of the injection line (IL) by means of the injection line plugging tool ; - disconnecting the chemical injection valve (CIV) from the injection line housing (ILH); - connecting a further chemical injection valve (CIV) to the injection line housing (ILH); - connecting the injection line plugging tool to the further chemical injection valve (CIV); - removing the injection line plug from the end (ILE) of the injection line (IL) by means of the injection line plugging tool ; - disconnecting the injection line plugging tool from the further chemical injection valve (CIV).
A bispecific antibody comprising a first antigen-binding site that binds ErbB-2 and a second antigen-binding site that binds ErbB-3, wherein said antibody comprises at least the CDR1, CDR2 and CDR3 sequences of an ErbB-2 specific heavy chain variable region selected from the group consisting of MF2973, MF3004, MF3958, MF2971, MF3025, MF2916, MF3991, MF3031, and MF3003 as depicted in Figure 16A or Figure 16E, and wherein said antibody comprises at least the CDR1, CDR2 and CDR3 sequences of an ErbB-3 specific heavy chain variable region selected from the group consisting of MF3178; MF3176; MF3163; MF6055; MF6056; MF6057; MF6058; MF6059; MF6060; MF6061; MF6062; MF6063; MF6064; MF6065; MF6066; MF6067; MF6068; MF6069; MF6070; MF6071; MF6072; MF6073 and MF6074 as depicted in Figure 16B or Figure 16E or Figure 37.
A removable roofing system comprising a motor inserted inside a drum , a cord, a compensation device , two rigging rails , at least one guide arch and a removable roofing, the at least one guide arch being connected to the cord and to the removable roofing, and being designed so that each of its ends slides in a rigging rail , the cord passing along each rigging rail and through the compensation device and being connected at its two ends to the drum , so that the rotating of the drum by the motor causes the cord to move in a direction dependent on the direction of rotation of the drum , deploying or retracting the removable roofing by moving the at least one guide arch , each rigging rail is equipped with at least one end pulley and with at least two corner-block deflecting pulleys which are designed to guide the cord from the compensation device to the at least one end pulley , and the compensation device is designed to automatically compensate for variations in cord tension.
An automobile component having a multilayer structure, the automobile component comprising: a core layer having tubular cells , the tubular cells being arranged in a plurality of rows; a nonwoven fabric layer located on at least one surface of the core layer ; and a thin resin film layer having a plurality of apertures between the core layer and the nonwoven fabric layer , wherein each of the cells has a closed surface at one end and an open end at another end, an internal space of the cell is in communication with an outside by the open end of the cell , the open ends of the cells are arranged on both sides of the core layer such that rows of the open ends of the cells are in every other row, and the apertures are provided so that 0 < S1/S2 < 0.3, where S2 represents an area of openings defined by the open ends in the core layer , and S1 represents an area of the apertures provided in the resin film layer which correspond to the openings of the core layer , and where the ratio S1/S2 is the average ratio in the entire area of cells. a core layer having tubular cells , the tubular cells being arranged in a plurality of rows; a nonwoven fabric layer located on at least one surface of the core layer ; and a thin resin film layer having a plurality of apertures between the core layer and the nonwoven fabric layer , wherein each of the cells has a closed surface at one end and an open end at another end, an internal space of the cell is in communication with an outside by the open end of the cell , the open ends of the cells are arranged on both sides of the core layer such that rows of the open ends of the cells are in every other row, and the apertures are provided so that 0 < S1/S2 < 0.3, where S2 represents an area of openings defined by the open ends in the core layer , and S1 represents an area of the apertures provided in the resin film layer which correspond to the openings of the core layer , and where the ratio S1/S2 is the average ratio in the entire area of cells.
Crankshaft and engine flywheel assembly comprising a device for coupling an engine flywheel that is coupled in rotation to a crankshaft of an internal combustion engine, characterized in that it comprises a joining part between the engine flywheel and the end of said crankshaft on the side of the engine flywheel , whose assemblage comprises a smooth surface, between said joining part and an arm of the crankshaft located at the end of said crankshaft on the side of the engine flywheel , that is able to receive a one-piece main bearing rolling element bearing on a last main journal at the end of the crankshaft on the coupling side, the contact surfaces on said joining part and said end of said crankshaft comprising raised features positioned perpendicular to the axis of said crankshaft , said features on each of said surfaces being complementary so as to be able to drive each other by mutual cooperation.
Mobile device , which can be driven in particular by an electric motor, for separating slate slabs , fibre cement slabs or ceramic slabs with an abutment having a bearing surface for the slate slab , in which a tool carrier having a cutting edge is cyclically deflected by means of an eccentric , with the result that the cutting edge penetrates, from a side facing away from the abutment , into the slate slab and produces a cut edge or fracture edge , characterized in that the device is releasably fixable in a stationary or positionally fixed manner while carrying out the separating method, and in that the device is equipped with at least two cutting edges which are arranged in a common plane, wherein at least one cutting edge is arranged above the at least one abutment and at least one further cutting edge is arranged below the at least one abutment , with the result that, during the separating process, the slate slab can be selectively placed from above or from below against a respective bearing surface of the at least one abutment , and wherein the tool carrier carrying the cutting edges is configured to be reversingly translationally movable during operation by means of the eccentric .
Particle-optical corrector for correcting the spherical aberrations (C 3 , C 5 ) of an electron microscope, thereby preventing the threefold axial astigmatism (A 2 ), the axial three-lobed aberration of fourth order (D 4 ) and the sixfold axial astigmatism (A 5 ), wherein the corrector comprises a central multipole element of length L for generating a hexapole field ( Ψ HP2 ) in the symmetry plane of the corrector as well as two outer identical multipole elements of length L 'for generating identically strong hexapole fields ( Ψ HP1 , Ψ HP3 ) and two round lens doublets (7 and 8) with round lenses (7', 7", 8', 8"), wherein the round lenses (7' and 8') which are closer to the symmetry plane are arranged at a separation of the focal lengths ( f ) of the round lenses with respect to the symmetry plane , and the round lenses (7", 8") which are further away from the symmetry plane are disposed at a separation from the round lenses which corresponds to their focal lengths ( f' ) plus the focal lengths ( f ) of the round lenses which are disposed closer to the symmetry plane , characterized in that the strength of the central hexapole field ( Ψ HP2 ) with respect to the strengths of the two identically strong outer hexapole fields ( Ψ HP1,3 ) is chosen such that the threefold axial astigmatism (A 2 ) vanishes and the strengths ( Ψ HP1,3 ) of the latter are chosen such that the overall corrector does not have a sixfold axial astigmatism (A 5 ), that the separation between the multipole elements (1 and 3) and round lenses (7", 8") located further away from the symmetry plane , corresponds to the focal length ( f' ) thereof plus an additional separation (Δ z ), wherein the latter is chosen such that for the stated lengths L and L', the axial three-lobed aberration of fourth order (D 4 ) vanishes and that the length ( L ) of the central multipole element is selected relative to the lengths ( L' ) of the two outer identical multipole elements (1 and 3) in such a manner that the axial three-lobed aberration of sixth order (D 6 ) vanishes for the stated ratio ( M = f / f' ) between the focal length ( f ) of the round lenses that are closer to the symmetry plane and the focal length ( f ') of the round lenses (7", 8") that are further away from the symmetry plane.
An adhesive composition comprising: (A) an adhesive polymer comprising repeated structures consisting of one or more kinds of (meth)acryl-based, urethane-based, silicone-based and polyolefin-based unit structures; (B) a conductive polymer complex including a conjugated polymer, and a polyanion having a block copolymer structure; and (C) a nonaqueous solvent or dispersion medium, wherein the conductive polymer complex is contained by 0.1 parts by mass or higher and lower than 10 parts by mass relative to 100 parts by mass of the adhesive polymer. (A) an adhesive polymer comprising repeated structures consisting of one or more kinds of (meth)acryl-based, urethane-based, silicone-based and polyolefin-based unit structures; (B) a conductive polymer complex including a conjugated polymer, and a polyanion having a block copolymer structure; and (C) a nonaqueous solvent or dispersion medium,
A rolling bearing retainer (RT) which is formed by insert molding a resinous material together with a core member with the use of a mold , and in which the core member is embedded within a resin part made of the resinous material and there is provided a support area exposure part at a plurality of locations of the resin part for exposing a support area of the core member supported within a cavity of the mold , and in which the resin part includes a ring shaped body and a plurality of support column bodies extending axially from the ring shaped body and defining a pocket (Pt) for retaining a rolling element (T) therebetween, and the core member is provided with a ring shaped body embedded part embedded in the ring shaped body of the resin part and a plurality of support column body embedded parts extending from the ring shaped body embedded part and embedded in the respective support column bodies and each of the support column body embedded parts is so formed as to extend in a radial direction from the ring shaped body embedded part , and is in the form of a bent piece bent at a base end relative to the ring shaped body embedded part .
A flange extender for extending the flange of an ostomy bag which consists of a film and adhesive wherein the film has a thickness of 5μm to 200μm and is selected from a polyurethane film, polyvinylchloride film, polyester film and vinyl film, and has a body facing surface and an ostomy bag facing surface, and the adhesive has a thickness of 0.2 μm to 2 μm and is applied to at least one of these surfaces.
A downhole catcher device , the catcher device comprising: a catching mechanism being transferable between a first mode and a second mode; the catching mechanism being configured for passing by a first operation element if the catching mechanism is in the first mode; the catching mechanism being configured for catching a second operation element if the catching mechanism is in the second mode; characterised by : the catching mechanism comprising a diverter ; the downhole catcher device further comprising a catching path and a bypass path besides the catching path ; wherein the diverter includes an inlet and an outlet ; wherein the outlet is fluidically coupled to the inlet ; wherein in the first mode the outlet is located facing the bypass path ; and wherein in the second mode the outlet is facing the catching path . a catching mechanism being transferable between a first mode and a second mode; the catching mechanism being configured for passing by a first operation element if the catching mechanism is in the first mode; the catching mechanism being configured for catching a second operation element if the catching mechanism is in the second mode; characterised by : the catching mechanism comprising a diverter ; the downhole catcher device further comprising a catching path and a bypass path besides the catching path ; wherein the diverter includes an inlet and an outlet ; wherein the outlet is fluidically coupled to the inlet ; wherein in the first mode the outlet is located facing the bypass path ; and wherein in the second mode the outlet is facing the catching path . the catching mechanism comprising a diverter ; the downhole catcher device further comprising a catching path and a bypass path besides the catching path ; wherein the diverter includes an inlet and an outlet ; wherein the outlet is fluidically coupled to the inlet ; wherein in the first mode the outlet is located facing the bypass path ; and wherein in the second mode the outlet is facing the catching path .
A method for compensating for interferants in measurement of alkalinity in a reagent-less system, comprising: introducing an aqueous sample into a measurement device comprising one or more series of electrodes; applying an electrical signal to the aqueous sample using the one or more series of electrodes, wherein the electrical signal is selected from the group consisting of: current and voltage; identifying, during application of the electrical signal, that the electrical signal reaches an oxidation threshold and measuring, prior to reaching the oxidation threshold, a first electrical response to the electrical signal, the first electrical response attributable to interferants in the aqueous sample; identifying, during application of the electrical signal, that the electrical signal reaches an endpoint and measuring, from the oxidation threshold to the endpoint, a second electrical response to the electrical signal; and measuring an alkalinity of the aqueous sample based upon a difference between the first electrical response and the second electrical response. introducing an aqueous sample into a measurement device comprising one or more series of electrodes; applying an electrical signal to the aqueous sample using the one or more series of electrodes, wherein the electrical signal is selected from the group consisting of: current and voltage; identifying, during application of the electrical signal, that the electrical signal reaches an oxidation threshold and measuring, prior to reaching the oxidation threshold, a first electrical response to the electrical signal, the first electrical response attributable to interferants in the aqueous sample; identifying, during application of the electrical signal, that the electrical signal reaches an endpoint and measuring, from the oxidation threshold to the endpoint, a second electrical response to the electrical signal; and measuring an alkalinity of the aqueous sample based upon a difference between the first electrical response and the second electrical response.
A method performed by at least one processor included in an unmanned aerial system, UAS, the method comprising: transmitting , to a UAS Service Supplier, USS, UOO implemented on at least one server, a first registration request to register a first remote identification, RID, corresponding to the UAS with the USS; and characterized by further comprising: receiving , from the USS, an indication that the first RID is a duplicate RID that is registered with the USS; determining , based on the first RID, a second RID corresponding to the UAS; and transmitting , to the USS, a second registration request to register the second RID. transmitting , to a UAS Service Supplier, USS, UOO implemented on at least one server, a first registration request to register a first remote identification, RID, corresponding to the UAS with the USS; and characterized by further comprising: receiving , from the USS, an indication that the first RID is a duplicate RID that is registered with the USS; determining , based on the first RID, a second RID corresponding to the UAS; and transmitting , to the USS, a second registration request to register the second RID. receiving , from the USS, an indication that the first RID is a duplicate RID that is registered with the USS; determining , based on the first RID, a second RID corresponding to the UAS; and transmitting , to the USS, a second registration request to register the second RID.
An expansion anchor made of steel with an anchor bolt which extends along a longitudinal axis (L) from a rear end to a front end on the insertion side, wherein the anchor bolt has a shaft with a load application means , on which an expansion body of the anchor bolt is arranged in front of the load application means such that it cannot move relative to the shaft , wherein the expansion body has an expansion portion which widens conically toward the insertion-side front end of the anchor bolt at a first cone angle (Ws) up to a maximum diameter (D), wherein the expansion anchor has an expansion sleeve which is arranged on the anchor bolt and is expandable by a displacement of the anchor bolt relative to the expansion sleeve and a resulting retraction of the expansion portion into the expansion sleeve , wherein no sliding coating is arranged between the spreader body and the spreader sleeve , and wherein the expansion sleeve has a plurality of expansion segments , each of which comprises a base body having a first wall thickness (t G ), on which an extension having a second wall thickness (t F ) reduced by a thickness difference (dt) relative to the first wall thickness (t G ) is arranged on the insertion side, wherein the transition from the base body to the extension is formed by a diameter step on the outside of the expansion sleeve , which has a height corresponding to the thickness difference (dt), and wherein the extension on its inner side facing the anchor bolt is inclined at least on the insertion side at a second cone angle (W F ) to the longitudinal axis (L), characterized in that the distance (dL) between the base body and the insertion-side front end of the extension applies: dL ≤ dt / tan W S + W F wherein the expansion anchor has an expansion sleeve which is arranged on the anchor bolt and is expandable by a displacement of the anchor bolt relative to the expansion sleeve and a resulting retraction of the expansion portion into the expansion sleeve , wherein no sliding coating is arranged between the spreader body and the spreader sleeve , and wherein the expansion sleeve has a plurality of expansion segments , each of which comprises a base body having a first wall thickness (t G ), on which an extension having a second wall thickness (t F ) reduced by a thickness difference (dt) relative to the first wall thickness (t G ) is arranged on the insertion side, wherein the transition from the base body to the extension is formed by a diameter step on the outside of the expansion sleeve , which has a height corresponding to the thickness difference (dt), and wherein the extension on its inner side facing the anchor bolt is inclined at least on the insertion side at a second cone angle (W F ) to the longitudinal axis (L), characterized in that the distance (dL) between the base body and the insertion-side front end of the extension applies: dL ≤ dt / tan W S + W F