mhurhangee/ep-ind-claims huggingface dataset:
Procedure designed for the parameterization of a field device used in automation technology using an operating unit, wherein the field device has at least a battery, a radio module and a non-volatile memory, wherein the battery supplies energy, in an offline mode, to the radio module and the non-volatile memory in which parameters of the field device are saved, wherein, in the offline mode, the field device is not connected to a two-wire line and is not supplied with energy via the two-wire line, wherein the procedure comprises the following steps: - Establishment of a wireless connection between the operating unit and the battery-powered radio module of the field device, wherein the field device is operated in the offline mode; - Writing of parameters to the non-volatile memory of the field device in order to perform a pre-parameterization of the field device in the offline mode; - Tearing down of the wireless connection between the operating unit and the battery-power radio module of the field device in the offline mode; - Connection of the pre-parameterized field device to the two-wire line for the purpose of supplying power to the field device; - Parameterization of the field device after said field device has been connected to the two-wire line, wherein at the very least the parameters saved in the non-volatile memory are used for the purpose of parameterization. - Establishment of a wireless connection between the operating unit and the battery-powered radio module of the field device, wherein the field device is operated in the offline mode; - Writing of parameters to the non-volatile memory of the field device in order to perform a pre-parameterization of the field device in the offline mode; - Tearing down of the wireless connection between the operating unit and the battery-power radio module of the field device in the offline mode; - Connection of the pre-parameterized field device to the two-wire line for the purpose of supplying power to the field device; - Parameterization of the field device after said field device has been connected to the two-wire line, wherein at the very least the parameters saved in the non-volatile memory are used for the purpose of parameterization.
A robotic apparatus for neurosurgical operations, said robotic apparatus comprising: a robotic arm the free end of which is adapted to hold at least one surgical tool; a chassis supporting the robotic arm and covered with a movable box; a rigid support arm movably coupled with the chassis and extendable from a first retracted position within the chassis to a plurality of deployed positions where at least a portion of the rigid support arm extends outside the movable box; and a locking mechanism fastened to the chassis and cooperating with the rigid support arm for locking the rigid support arm in any one of the plurality of extended positions, characterised in that the free end of the arm is connected to a headrest for maintaining a patient's head, via a radiotransparent member fastened rigidly to the free end of said support arm and comprising a connecting interface with the headrest providing at least two degrees of freedom. a robotic arm the free end of which is adapted to hold at least one surgical tool; a chassis supporting the robotic arm and covered with a movable box; a rigid support arm movably coupled with the chassis and extendable from a first retracted position within the chassis to a plurality of deployed positions where at least a portion of the rigid support arm extends outside the movable box; and a locking mechanism fastened to the chassis and cooperating with the rigid support arm for locking the rigid support arm in any one of the plurality of extended positions, characterised in that the free end of the arm is connected to a headrest for maintaining a patient's head, via a radiotransparent member fastened rigidly to the free end of said support arm and comprising a connecting interface with the headrest providing at least two degrees of freedom.
A system for use in a procedure for improving a sealing function of a sphincter, the system comprising a catheter extending between a proximal end and a distal end, a primary expandable element located on the catheter adjacent the distal end thereof for inserting in the sphincter, the primary expandable element comprising a primary inflatable balloon defining the hollow interior region, the catheter extending through the hollow interior region of the primary balloon, a primary inflating means comprising a primary pump for inflating the primary balloon with an inflating medium, a primary pressure monitoring means comprising a primary pressure sensor and gauge for monitoring the pressure of the inflating medium in the primary balloon, a primary measuring means (32,35) located in the hollow interior region of the primary balloon for producing a signal indicative of the transverse cross-section of the primary balloon, and a control means (4,43) comprising a microprocessor responsive to signals from the primary measuring means (32,35) for determining the transverse cross-sectional area of the primary balloon, the primary pump being operated under the control of the microprocessor for inflating and deflating the primary balloon with the inflating medium and for controlling the volume and pressure to which the primary balloon is inflated in response to signals read by the microprocessor from the primary pressure sensor and gauge, the primary balloon being selectively operable in a first mode for dilating the sphincter to a desired transverse cross-sectional area, and the primary measuring means (32,35) being operable for providing an indication of the transverse cross-sectional area of the sphincter while the procedure for improving the sealing function thereof is being carried out, and a second mode for progressively expanding with the sphincter as the sphincter is dilating for determining the dilated transverse cross-sectional area of the sphincter in response to stimulation thereof, wherein in the second mode the primary balloon is inflated with the inflating medium by the primary pump to a pressure or volume sufficient to engage the sphincter without dilating the sphincter, but sufficient such that as the sphincter dilates, the portion of the primary balloon adjacent the sphincter progressively expands with the sphincter, and the pressure of the inflating medium in the primary balloon is monitored on the primary pressure sensor and gauge by the microprocessor, which appropriately operates the primary pump in response to the monitored pressure.
A pharmaceutical composition comprising an amorphous solid dispersion of Aprepitant with polyvinyl caprolactam - polyvinyl acetate - polyethylene glycol graft copolymer, wherein the ratio by weight of Aprepitant to the carrier polyvinyl caprolactam - polyvinyl acetate - polyethylene glycol graft copolymer is from 1:1 to 1:4, which pharmaceutical composition further comprises a diluent, a disintegrant, a glidants and a lubricant and wherein the diluent is lactose.
A fan module for a cooling unit, the fan module comprising: a fan housing configured to be secured within the cooling unit, the fan housing having a first open end and a second open end spaced from the first open end; a fan assembly secured within the fan housing at the first open end of the fan housing, the fan assembly including a fan support, a fan rotatably coupled to the fan support, and a motor coupled to the fan to drive rotation of the fan, the fan support being configured to support the fan assembly within the fan housing; a mounting ring secured to the fan housing; a duct cover secured to the fan housing at the second open end of the fan housing; a noise reduction assembly disposed in the fan housing adjacent the fan assembly to reduce noise generated by the fan assembly, the noise reduction assembly including a holder configured to be secured to the fan housing, and an acoustic component secured to the holder, the holder including a plate that is secured to the fan housing by the mounting ring and a rod having one end secured to the plate and an opposite end secured to the duct cover, the rod being configured to support the acoustic component. a fan housing configured to be secured within the cooling unit, the fan housing having a first open end and a second open end spaced from the first open end; a fan assembly secured within the fan housing at the first open end of the fan housing, the fan assembly including a fan support, a fan rotatably coupled to the fan support, and a motor coupled to the fan to drive rotation of the fan, the fan support being configured to support the fan assembly within the fan housing; a mounting ring secured to the fan housing; a duct cover secured to the fan housing at the second open end of the fan housing; a noise reduction assembly disposed in the fan housing adjacent the fan assembly to reduce noise generated by the fan assembly, the noise reduction assembly including a holder configured to be secured to the fan housing, and an acoustic component secured to the holder, the holder including a plate that is secured to the fan housing by the mounting ring and a rod having one end secured to the plate and an opposite end secured to the duct cover, the rod being configured to support the acoustic component.
Power tool transmission device having at least one first and one second gear stage (12, 14; 12a, 14a) and having a shifting element (16; 16a) which is movable in an axial direction by a user by means of an actuating element (18; 18a), wherein the shifting element (16; 16a) at least partially surrounds at least one gear stage (12, 14; 12, 14a) in a circumferential direction (20, 20a) in at least one operating position and is intended to shift between a first and a second operating position, and the shifting element (16; 16a) comprises at least one first component (22; 22a) and one second component (24; 24a), characterized in that the first component (22; 22a) is mounted so as to be movable in the circumferential direction relative to the second component (24; 24a).
A tracheostoma spacer with a tubular support framework, wherein the support framework is able to expand from an initial state to a supporting state of increased diameter and has a fixing element at the end; characterised in that the support framework has a tube guide element configured to guide, in use, the orientation of a tracheotomy device or a catheter to be inserted through the tracheostoma spacer, wherein the tube guide element is formed by one or more protrusions from the inner wall of the tracheostoma spacer.
A cured adhesive composition comprising: (a) a copolymer comprising the reaction product of: i) 65 to 94.5 wt % of a C 8 acrylate ester, ii) 0.5 to 5 wt % of a polar cross-linkable monomer, and iii) 5-30 wt % of a non polar monomer; wherein the copolymer has a weight average molecular weight of 400,000 to 2,200,000 grams/mole and wherein the reaction is in the presence of a solvent; (b) 30 to 70 parts of a hydrogenated hydrocarbon tackifier per 100 parts of the copolymer; and (c) 0.01 to 3 parts (solid/solid) of a cross-linking agent per 100 parts of the copolymer; wherein the cured adhesive has a peel value greater than 6 N/cm when tested according to FINAT test method No. 2 on a low density polyethylene; and further wherein the cured adhesive has a shear value greater than 2000 minutes when tested according to FINAT test method No. 8 on a low density polyethylene. (a) a copolymer comprising the reaction product of: i) 65 to 94.5 wt % of a C 8 acrylate ester, ii) 0.5 to 5 wt % of a polar cross-linkable monomer, and iii) 5-30 wt % of a non polar monomer; wherein the copolymer has a weight average molecular weight of 400,000 to 2,200,000 grams/mole and wherein the reaction is in the presence of a solvent; i) 65 to 94.5 wt % of a C 8 acrylate ester, ii) 0.5 to 5 wt % of a polar cross-linkable monomer, and iii) 5-30 wt % of a non polar monomer; (b) 30 to 70 parts of a hydrogenated hydrocarbon tackifier per 100 parts of the copolymer; and (c) 0.01 to 3 parts (solid/solid) of a cross-linking agent per 100 parts of the copolymer;
A two-dimensional comprehensive Gas Chromatography system (GCxGC), having a first dimensional column, a second dimensional column and a modulator located between the first and second columns, characterised in that the modulator comprises two four-port valves and two transfer lines between the four-port valves, and is operable for switching a carrier gas between the transfer lines, wherein the two four-port valve switching modulator maintains a carrier gas through both the first and second columns and wherein said carrier gas is helium, or hydrogen or nitrogen or other inert (non-reactive) gas.
A human monoclonal antibody directed against the VP1 protein of JC virus, which is capable of neutralizing the JC virus, the human monoclonal antibody comprising at least a heavy chain variable region and a light chain variable region, wherein the heavy chain variable region has the sequence SEQ ID NO:1 and the light chain variable region has the sequence SEQ ID NO:2, or the heavy chain variable region is encoded by the sequence SEQ ID NO:3 and the light chain variable region is encoded by the sequence SEQ ID NO:4.
An agent that inhibits binding of PSD-95 to NMDAR 2B for use in inhibiting ischemic damage from neurosurgery, wherein the neurosurgery is diagnostic angiography of the brain or endovascular surgery to treat an aneurysm and the agent comprises a peptide with the sequence ESDV (SEQ ID NO: 12) or ETDV (SEQ ID NO: 39) at the C-terminus, wherein the peptide is linked to an internalization peptide that facilitates uptake of the agent into cells and/or across the blood brain barrier.
A variant of albumin or fragment thereof comprising said variant of albumin or fragment thereof, comprising a substitution in a position corresponding to position 573 in SEQ ID NO: 2, wherein: (i) the variant or fragment has at least 98% sequence identity to SEQ ID NO:2; (ii) the substitution is to A,C,D,F,G,H,I,L,M,N,P,R,S,V,W, or Y; and (iii) the variant or fragment has a stronger binding affinity to FcRn and/or longer plasma half-life than a parent albumin comprising SEQ ID NO: 2 or fragment thereof, wherein the stronger binding affinity is defined by the variant of albumin or fragment having a binding coefficient to FcRn of less than 0.9X the binding coefficient of SEQ ID NO: 2, or corresponding fragment of SEQ ID NO: 2, to FcRn. (i) the variant or fragment has at least 98% sequence identity to SEQ ID NO:2; (ii) the substitution is to A,C,D,F,G,H,I,L,M,N,P,R,S,V,W, or Y; and (iii) the variant or fragment has a stronger binding affinity to FcRn and/or longer plasma half-life than a parent albumin comprising SEQ ID NO: 2 or fragment thereof, wherein the stronger binding affinity is defined by the variant of albumin or fragment having a binding coefficient to FcRn of less than 0.9X the binding coefficient of SEQ ID NO: 2, or corresponding fragment of SEQ ID NO: 2, to FcRn.
A method carried out by one or more devices, comprising: - obtaining or determining geometric information representative of the spatial position of a plurality of points on a surface of a textile; - - determining, on the basis of the spatial position of the points of the geometric information by means of an interpolation between the points, at least one size of the area of the surface of the textile, the spanned volume of the surface of the textile, and/or cross-sections of the surface of the textile; - determining at least one treatment parameter for treating the textile based at least partially on the geometric information, wherein the at least one treatment parameter indicates at least one amount of cleaning agent; and - outputting or triggering an output of the at least one treatment parameter, wherein the determination of the at least one treatment parameter is based on the determined size of the area of the surface of the textile and/or on a determination of the volume spanned by the surface of the textile and/or from cross-sections of the surface of the textile. - obtaining or determining geometric information representative of the spatial position of a plurality of points on a surface of a textile; - - determining, on the basis of the spatial position of the points of the geometric information by means of an interpolation between the points, at least one size of the area of the surface of the textile, the spanned volume of the surface of the textile, and/or cross-sections of the surface of the textile; - determining at least one treatment parameter for treating the textile based at least partially on the geometric information, wherein the at least one treatment parameter indicates at least one amount of cleaning agent; and - outputting or triggering an output of the at least one treatment parameter,
A method for producing at least one high-frequency contact element or a high-frequency contact element arrangement from at least one such high-frequency contact element with the following method steps: • Production of a main body part of each high-frequency contact element from a dielectric material by means of an additive manufacturing process, wherein the main body part has a feedthrough (4; 4 1, 4 2) between a first end (6 1) and a second end (6 2) of a longitudinal extension of the main body part, • Coating the dielectric main body part with an electrically conductive layer, characterized by the further method step: • Removal of the electrically conductive layer in a region (9 1, 9 2) surrounding the feedthrough (4; 4 1, 4 2) on the first end (6 1) and on the second end (6 2) of the main body part in order to form an electrically conductive outer conductive-side coating (5 1) and an electrically conductive inner conductor-side coating (5 2). • Production of a main body part of each high-frequency contact element from a dielectric material by means of an additive manufacturing process, wherein the main body part has a feedthrough (4; 4 1, 4 2) between a first end (6 1) and a second end (6 2) of a longitudinal extension of the main body part, • Coating the dielectric main body part with an electrically conductive layer, characterized by the further method step: • Removal of the electrically conductive layer in a region (9 1, 9 2) surrounding the feedthrough (4; 4 1, 4 2) on the first end (6 1) and on the second end (6 2) of the main body part in order to form an electrically conductive outer conductive-side coating (5 1) and an electrically conductive inner conductor-side coating (5 2).
A decoration element comprising: a light reflective layer; and a light absorbing layer provided on the light reflective layer, characterized in that the light absorbing layer has a surface resistance of 10,000 ohm/square or greater, wherein the light absorbing layer is a single layer or a multilayer comprising one, two or more types of materials selected from among indium (In), tin (Sn), silicon (Si), copper (Cu), germanium (Ge), aluminum (Al), nickel (Ni), vanadium, tungsten, tantalum (Ta), molybdenum (Mo), neodymium (Nd), titanium (Ti), iron (Fe), chromium (Cr), cobalt (Co), gold (Au) and silver (Ag), or oxides, nitrides or oxynitrides thereof, and the light absorbing layer comprises a pattern having an asymmetric structure. a light reflective layer; and a light absorbing layer provided on the light reflective layer, wherein the light absorbing layer is a single layer or a multilayer comprising one, two or more types of materials selected from among indium (In), tin (Sn), silicon (Si), copper (Cu), germanium (Ge), aluminum (Al), nickel (Ni), vanadium, tungsten, tantalum (Ta), molybdenum (Mo), neodymium (Nd), titanium (Ti), iron (Fe), chromium (Cr), cobalt (Co), gold (Au) and silver (Ag), or oxides, nitrides or oxynitrides thereof, and the light absorbing layer comprises a pattern having an asymmetric structure.
A boiler (1, 1a) comprising: a water pipe; a heat generation body; a container in which the water pipe and the heat generation body are provided; wherein the heat generation body is a reactant configured such that metal nanoparticles made of hydrogen storing metals are provided on a surface, and a hydrogen atom is stored in the metal nanoparticles to generate excess heat under a situation where hydrogen-based gas is supplied into the container, the boiler (1, 1a) further comprising: as a path for circulating the hydrogen-based gas, a circulation path including, as part thereof, the inside of the container; characterized in that the boiler (1, 1a) further comprises a heater configured to heat the reactant; wherein the water pipe is configured to be heated by heat generated by the heat generation body under environment where the inside of the container is filled with the hydrogen-based gas, and the water pipe forms an entire periphery of a cylindrical side wall of the container. a water pipe; a heat generation body; a container in which the water pipe and the heat generation body are provided; wherein the heat generation body is a reactant configured such that metal nanoparticles made of hydrogen storing metals are provided on a surface, and a hydrogen atom is stored in the metal nanoparticles to generate excess heat under a situation where hydrogen-based gas is supplied into the container, the boiler (1, 1a) further comprising: as a path for circulating the hydrogen-based gas, a circulation path including, as part thereof, the inside of the container; characterized in that the boiler (1, 1a) further comprises a heater configured to heat the reactant; wherein the water pipe is configured to be heated by heat generated by the heat generation body under environment where the inside of the container is filled with the hydrogen-based gas, and the water pipe forms an entire periphery of a cylindrical side wall of the container. as a path for circulating the hydrogen-based gas, a circulation path including, as part thereof, the inside of the container; characterized in that the boiler (1, 1a) further comprises a heater configured to heat the reactant; wherein the water pipe is configured to be heated by heat generated by the heat generation body under environment where the inside of the container is filled with the hydrogen-based gas, and the water pipe forms an entire periphery of a cylindrical side wall of the container.