mhurhangee/ep-ind-claims huggingface dataset:
A catheter for performing a procedure at a treatment site in the lumen of a blood vessel (v), the blood vessel (v) having a diameter D at the treatment site, the catheter comprising: an elongate tubular shaft having distal and proximal ends and a sidewall defining a lumen, the elongate tubular shaft having a proximal bend, a distal bend and a hinge element, the proximal bend defining a first angle greater than zero, the distal bend (5 1d) defining a second angle greater than the first angle, the hinge element being spaced proximally of the distal end of the elongate tubular shaft and distally of the distal bend, the distal bend being positioned between the proximal bend and the hinge element, a distal portion of the elongate tubular shaft extending between the hinge element and the distal end of the elongate tubular shaft and a mid portion of the elongate tubular shaft extending between the hinge element and the proximal bend, the distal portion including a window extending through the sidewall between the hinge element and the distal end of the elongate tubular shaft; and a working element disposed within the lumen of the elongate tubular shaft, the working element configured for performing the procedure through the window at the treatment site, the first and second angles being selected to form a maximum excursion of the elongate tubular shaft between the proximal bend and the hinge element greater than diameter D such that the window is urged against a wall of the vessel (v) at the treatment site. an elongate tubular shaft having distal and proximal ends and a sidewall defining a lumen, the elongate tubular shaft having a proximal bend, a distal bend and a hinge element, the proximal bend defining a first angle greater than zero, the distal bend (5 1d) defining a second angle greater than the first angle, the hinge element being spaced proximally of the distal end of the elongate tubular shaft and distally of the distal bend, the distal bend being positioned between the proximal bend and the hinge element, a distal portion of the elongate tubular shaft extending between the hinge element and the distal end of the elongate tubular shaft and a mid portion of the elongate tubular shaft extending between the hinge element and the proximal bend, the distal portion including a window extending through the sidewall between the hinge element and the distal end of the elongate tubular shaft; and a working element disposed within the lumen of the elongate tubular shaft, the working element configured for performing the procedure through the window at the treatment site, the first and second angles being selected to form a maximum excursion of the elongate tubular shaft between the proximal bend and the hinge element greater than diameter D such that the window is urged against a wall of the vessel (v) at the treatment site.
Transport means provided with a base frame, comprising a plurality of wheels;, two legs and a transverse connecting element which connects the legs, wherein the legs extend adjacently of each other and taper as seen from a rear side to a front side of the base frame, wherein each of the legs is provided on the rear side with at least one rear wheel and wherein at least one front wheel is mounted on the front side of the base frame, wherein the transport means is provided with coupling means for pairwise coupling of two transport means in a nested position, wherein the coupling means comprise first and second coupling means, wherein the first coupling means are arranged on the inner side of at least one of the legs and wherein the first coupling means of a first transport means are configured to co-act with the second coupling means of a second transport means for the purpose of releasably locking the second transport means in the first transport means in the nested position, characterized in that the second coupling means are arranged on the outer side of at least one of the legs.
An isolated antibody or antigen-binding fragment thereof that binds glucocorticoid-induced tumor necrosis factor receptor (GITR), wherein the antibody or antigen-binding fragment thereof comprises: (a) a heavy chain variable region (HCVR) having an amino acid sequence of SEQ ID NO:338; and (b) a light chain variable region (LCVR) having an amino acid sequence of SEQ ID NO: 402.
A random bit generator including a dual oscillator architecture comprising a fast oscillator with frequency f(fast) and a continuous-time chaotic oscillator with frequency f(slow center) and a comparator to reduce the complexity of the implementation of the slower clock, and which relies on generating non-invertible random binary bits from one of the signal of the chaotic oscillator, the random bit generator comprising (a) a comparator to reduce the complexity of the implementation of the slower clock where, one of the signal, which corresponds to one of the states (x1, x2,... or xn) of the continuous time chaotic oscillator is compared with a threshold voltage, (b) a fast clock, having a 50% duty cycle which is implemented by dividing a low jitter oscillator inside the hardware, (c) a D type flip-flop (D flip-flop) or a T type flip-flop (T flip-flop) in order to generate binary sequence (S(CDOA)) by sampling the output of the fast oscillator, at the rising and/or the falling edges of the comparator output, where the ratio f(fast) / f (slow center) is greater than 1 and smaller than 200, such that binary random numbers with maximum entropy are obtained. (a) a comparator to reduce the complexity of the implementation of the slower clock where, one of the signal, which corresponds to one of the states (x1, x2,... or xn) of the continuous time chaotic oscillator is compared with a threshold voltage, (b) a fast clock, having a 50% duty cycle which is implemented by dividing a low jitter oscillator inside the hardware, (c) a D type flip-flop (D flip-flop) or a T type flip-flop (T flip-flop) in order to generate binary sequence (S(CDOA)) by sampling the output of the fast oscillator, at the rising and/or the falling edges of the comparator output,
Plasma reactor vessel, comprising a vacuum chamber; a first electrode in the vacuum chamber; a second electrode in the vacuum chamber, opposed to the first electrode and spaced from the first electrode; a means for providing reactive process gases in the vacuum chamber; a power source electrically connected to one of the first or second electrodes, for applying a main RF voltage to one of the first and second electrodes, the other electrode being grounded; a substrate carrier comprising an electrically conductive material, the substrate carrier being configured to be in electrical contact with the second electrode and to hold a substrate such that at least the majority of upper and lower surfaces of the substrate are untouched by any part of the plasma reactor and can be exposed to the plasma; characterized in that, the reactor vessel further comprises a third electrode comprised between the substrate carrier and the second electrode, wherein the third electrode is electrically insulated from said second electrode; and wherein the third electrode and the substrate carrier are arranged such that, when the substrate carrier holds a substrate, a first clearance gap is comprised between the substrate and the third electrode.
Article of jewellery like jewellery, a watch, a jeweller's item, a writing instrument, characterized in that the article of jewellery is made of an alloy which contains rhodium in an amount of 47 to 53 wt.-% and platinum in an amount of 43 to 47 wt.-%, and that the article of jewellery optionally contains ruthenium, iridium and/or gold in an amount of together up to 20 wt.-%, whereby in this case platinum is substituted by ruthenium, iridium and/or gold, and that the alloy furthermore preferably contains palladium in an amount of up to 30 wt.-%, whereby in this case platinum is substituted by said palladium, and that the weight amounts of rhodium, platinum and optionally ruthenium, iridium, gold and/or palladium, apart from usual impurities, complement to 100 wt.-%.
Method for the production of a concrete body with a flat upper side, - wherein from fresh concrete comprising sand particles a concrete body is extruded, which on its upper side is provided with a groove profile with a comb-like profile (40, 47) by means of a profiling unit (26, 46), - wherein by means of the profiling unit (26, 26) and as a function of its comb-like profile (40, 47) it is possible to separate the sand particles according to their particle size, and - the groove profile has elevations (61 - 65) which are formed by webs (41 - 45) of the profile (40, 47) of the profiling unit (26, 46) arranged parallel to one another which have a distance b from one another, - wherein at least 60% of the sand particles are smaller than the distance b of the webs (41 -45) of the profile (40, 47) from one another and - by the distance b of the webs (41 - 45) from one another a limit value is defined for a variabledependent separation of the sand particles, - wherein large sand particles are displaced inwardly out of the surface area of the concrete body, - and fine sand particles pass the profile (40, 47) whereby the elevations (61, 65) of the groove profile are formed which are made from fine-grain concrete, and - the upper side of the concrete body is smoothed by means of an elevation unit, wherein the fine-grained concrete of the groove profile is distributed to a cover layer and - the concrete body is cut into a roof tile in a cutting station. - wherein from fresh concrete comprising sand particles a concrete body is extruded, which on its upper side is provided with a groove profile with a comb-like profile (40, 47) by means of a profiling unit (26, 46), - wherein by means of the profiling unit (26, 26) and as a function of its comb-like profile (40, 47) it is possible to separate the sand particles according to their particle size, and - the groove profile has elevations (61 - 65) which are formed by webs (41 - 45) of the profile (40, 47) of the profiling unit (26, 46) arranged parallel to one another which have a distance b from one another, - wherein at least 60% of the sand particles are smaller than the distance b of the webs (41 -45) of the profile (40, 47) from one another and - by the distance b of the webs (41 - 45) from one another a limit value is defined for a variabledependent separation of the sand particles, - wherein large sand particles are displaced inwardly out of the surface area of the concrete body, - and fine sand particles pass the profile (40, 47) whereby the elevations (61, 65) of the groove profile are formed which are made from fine-grain concrete, and - the upper side of the concrete body is smoothed by means of an elevation unit, wherein the fine-grained concrete of the groove profile is distributed to a cover layer and - the concrete body is cut into a roof tile in a cutting station.
A manufacturing method of an Ni-based alloy high-chrome steel structure (1, 30) formed by joining together by welding at least two first members (11a, 11b; 32a, 32b) formed from Ni-based alloys, and joining a second member (12a, 12b; 33) formed from high-chrome steels to a member where the first members (11a, 11b; 32a, 32b) have been joined together, the manufacturing method being characterized in that it comprises the steps of: joining together the at least two first members (11a, 11b; 32a, 32b) formed from Ni-based alloys by welding; performing a first-stage aging treatment on a welded joint (21; 42) between the first members (11a, 11b; 32a, 32b), and then, joining the second member (12a, 12b; 33) formed from high-chrome steels to the member where the first members (11a, 11b; 32a, 32b) have been joined together by welding; and then, performing second-stage aging treatment on the welded joint (21; 42) between the first members (11a, 11b; 32a, 32b), and performing heat treatment after welding on a welded portion between the first members (11a, 11b; 32a, 32b) and the second member (12a, 12b; 33). joining together the at least two first members (11a, 11b; 32a, 32b) formed from Ni-based alloys by welding; performing a first-stage aging treatment on a welded joint (21; 42) between the first members (11a, 11b; 32a, 32b), and then, joining the second member (12a, 12b; 33) formed from high-chrome steels to the member where the first members (11a, 11b; 32a, 32b) have been joined together by welding; and then, performing second-stage aging treatment on the welded joint (21; 42) between the first members (11a, 11b; 32a, 32b), and performing heat treatment after welding on a welded portion between the first members (11a, 11b; 32a, 32b) and the second member (12a, 12b; 33).
A method for printing a component by means of a 3D printer, wherein the method comprises the following steps: entering a desired dose distribution of the component to be printed on a neuronal network by means of CAD/CAM software, wherein the dose distribution is defined as the spatial distribution of the dose of absorbed UV light in the component; calculation of the exposure strategy including the exposure data using the neuronal network, which optimally maps the specified desired dose distribution for the component; printing the component with the calculated exposure data, wherein the neuronal network is trained using training data obtained from simulations, wherein the dose distribution in the component was calculated in each simulation for given exposure data of a print job containing the process data to be processed by the 3D printer. entering a desired dose distribution of the component to be printed on a neuronal network by means of CAD/CAM software, wherein the dose distribution is defined as the spatial distribution of the dose of absorbed UV light in the component; calculation of the exposure strategy including the exposure data using the neuronal network, which optimally maps the specified desired dose distribution for the component; printing the component with the calculated exposure data, wherein the neuronal network is trained using training data obtained from simulations, wherein the dose distribution in the component was calculated in each simulation for given exposure data of a print job containing the process data to be processed by the 3D printer.
A method of preparing an electrode assembly, comprising the steps of: 1) pre-drying a separator under vacuum at a pressure of less than 25 kPa and a temperature from 50 °C to 150 °C in a drying chamber to obtain a pre-dried separator; 2) stacking at least one anode, at least one cathode, and at least one pre-dried separator interposed between the at least one anode and at least one cathode to obtain the electrode assembly; 3) drying the electrode assembly under vacuum at a temperature from about 70 °C to about 150 °C; 4) filling the drying chamber with dry air or inert gas; and 5) repeating steps 3) and 4) at least 5 times; wherein each iteration of step 3) lasts a time period from 5 minutes to 12 hours; wherein the water content of the pre-dried separator is less than 80 ppm by weight, based on the total weight of the pre-dried separator, as measured by Karl-Fischer coulometric titration. 1) pre-drying a separator under vacuum at a pressure of less than 25 kPa and a temperature from 50 °C to 150 °C in a drying chamber to obtain a pre-dried separator; 2) stacking at least one anode, at least one cathode, and at least one pre-dried separator interposed between the at least one anode and at least one cathode to obtain the electrode assembly; 3) drying the electrode assembly under vacuum at a temperature from about 70 °C to about 150 °C; 4) filling the drying chamber with dry air or inert gas; and 5) repeating steps 3) and 4) at least 5 times; wherein each iteration of step 3) lasts a time period from 5 minutes to 12 hours; wherein the water content of the pre-dried separator is less than 80 ppm by weight, based on the total weight of the pre-dried separator, as measured by Karl-Fischer coulometric titration.
A fuel economy display control method for a hybrid vehicle in which driving electric power supplied to a travel motor from a battery is generated by an engine, the fuel economy display control method being executed in a series hybrid mode in which the hybrid vehicle travels only with driving force of the travel motor without using the engine as a traveling driving source, the fuel economy display control method comprising: an electric power economy computation step in which instantaneous electric power economy according to an output of the travel motor is computed; and a display step in which the instantaneous fuel economy is displayed on a display device arranged inside a vehicle cabin, characterized by a fuel economy computation step in which instantaneous fuel economy is computed by correcting the instantaneous electric power economy in accordance with an operating state set for the engine. an electric power economy computation step in which instantaneous electric power economy according to an output of the travel motor is computed; and a display step in which the instantaneous fuel economy is displayed on a display device arranged inside a vehicle cabin, characterized by a fuel economy computation step in which instantaneous fuel economy is computed by correcting the instantaneous electric power economy in accordance with an operating state set for the engine.
A method of establishing a data stream between a talker device and a listener device over a network, the method comprising: receiving, at a network device, first stream identification information for a first data stream segment disposed in a first layer 2 domain from the talker device; wherein the first stream identification information comprises a stream reservation protocol, SRP, stream identification received with an SRP Talker advertise message and a resource reservation protocol, RSVP, stream identification information received with an RSVP Path message, determining, at the network device, based at least in part on a mapping storing relationships between data stream segments, and on the SRP stream identification and the RSVP stream identification contained in the first stream identification information, a second stream identification information for a second data stream segment that links the first layer 2 domain to a second layer 2 domain that includes the listener device; and transmitting, from the network device, the second stream identification information to the second layer 2 domain via a layer 3 protocol. receiving, at a network device, first stream identification information for a first data stream segment disposed in a first layer 2 domain from the talker device; wherein the first stream identification information comprises a stream reservation protocol, SRP, stream identification received with an SRP Talker advertise message and a resource reservation protocol, RSVP, stream identification information received with an RSVP Path message, determining, at the network device, based at least in part on a mapping storing relationships between data stream segments, and on the SRP stream identification and the RSVP stream identification contained in the first stream identification information, a second stream identification information for a second data stream segment that links the first layer 2 domain to a second layer 2 domain that includes the listener device; and transmitting, from the network device, the second stream identification information to the second layer 2 domain via a layer 3 protocol.
An air cooled motor controller, comprising: a substrate; at least one inductor assembly arranged on the substrate, wherein the at least one inductor assembly includes an outer cylindrical housing, a wound inductor core arranged within the outer cylindrical housing, and an inner cylindrical housing arranged within the wound inductor core, wherein the inner cylindrical housing defines an inner cylindrical cavity configured to transmit air, and wherein the outer cylindrical housing and the inner cylindrical housing define at least one cylindrical gap in fluid communication with the inner cylindrical cavity and configured to transmit air; at least one air source in fluid communication with the at least one cylindrical gap. a substrate; at least one inductor assembly arranged on the substrate, wherein the at least one inductor assembly includes an outer cylindrical housing, a wound inductor core arranged within the outer cylindrical housing, and an inner cylindrical housing arranged within the wound inductor core, wherein the inner cylindrical housing defines an inner cylindrical cavity configured to transmit air, and wherein the outer cylindrical housing and the inner cylindrical housing define at least one cylindrical gap in fluid communication with the inner cylindrical cavity and configured to transmit air; at least one air source in fluid communication with the at least one cylindrical gap.
A composition for dermal application comprising i) 35-55% by weight of the active compound permethrin ii) 5-15% by weight of imidacloprid iii) 20-60% by weight of dimethyl sulfoxide and iv) optionally one or more veterinarily acceptable excipients. i) 35-55% by weight of the active compound permethrin ii) 5-15% by weight of imidacloprid iii) 20-60% by weight of dimethyl sulfoxide and iv) optionally one or more veterinarily acceptable excipients.
A method for assembling an assembly for a syringe, the assembly for a syringe including a cylindrical outer barrel having a barrel tip at its tip end and an opening at its base end; a puncture needle held at the barrel tip and having a needle hole communicating with an inner space of the outer barrel; and a cylindrical cap having a receiving hole, which is formed in a direction in which the puncture needle extends and has a bottom wall at its tip end, the cap storing the puncture needle in the receiving hole and detachably mounted to the barrel tip so as to seal a tip end of the needle hole, the method comprising: forming a closed space in the receiving hole by inserting the puncture needle and the barrel tip at least partially into the receiving hole before the tip end of the puncture needle is inserted into the bottom wall; characterized by discharging gas in the closed space through the needle hole, the inner space, and the opening before the tip end of the puncture needle is inserted into the bottom wall such that the pressure in the closed space becomes a negative pressure; and with the negative pressure in the closed space being maintained, sealing the tip end of the needle hole by further inserting the barrel tip into the receiving hole and inserting the tip end of the puncture needle into the bottom wall. forming a closed space in the receiving hole by inserting the puncture needle and the barrel tip at least partially into the receiving hole before the tip end of the puncture needle is inserted into the bottom wall; characterized by discharging gas in the closed space through the needle hole, the inner space, and the opening before the tip end of the puncture needle is inserted into the bottom wall such that the pressure in the closed space becomes a negative pressure; and with the negative pressure in the closed space being maintained, sealing the tip end of the needle hole by further inserting the barrel tip into the receiving hole and inserting the tip end of the puncture needle into the bottom wall.
A metalworking fluid composition with a pH in the range of 8.5 to 10.0 comprising water, oil, and a pH buffer system, the pH buffer system comprising one or more organic acids selected from the group consisting of phthalic acid, isophthalic acid, and terephthalic acid and one or more organic amines selected from monoethanolamine, methylpentamethylenediamine, and mixtures thereof and at least 5.0% based on the total weight of the metalworking fluid of a hydrodynamic lubricant selected from mineral oil.