mhurhangee/ep-ind-claims huggingface dataset:
A compound of Formula I or a pharmaceutically acceptable salt thereof, wherein R 1 is hydrogen, cyano, halo, optionally substituted alkoxy, optionally substituted aryloxy, optionally substituted amino, optionally substituted alkyl, optionally substituted aryl, optionally substituted heterocycloalkyl, or optionally substituted heteroaryl; R 2, R 3, R 4, and R 5, are independently hydrogen, halo, optionally substituted alkoxy, or optionally substituted alkyl; R 6, R 7, R 8, and R 10 are independently hydrogen, cyano, or halo; R 9 is optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted heterocycloalkyl, optionally substituted aryl, or optionally substituted heteroaryl; and R 11 is hydrogen, optionally substituted alkyl having one to six carbon atoms, optionally substituted aryl, or optionally substituted heteroaryl. R 1 is hydrogen, cyano, halo, optionally substituted alkoxy, optionally substituted aryloxy, optionally substituted amino, optionally substituted alkyl, optionally substituted aryl, optionally substituted heterocycloalkyl, or optionally substituted heteroaryl; R 2, R 3, R 4, and R 5, are independently hydrogen, halo, optionally substituted alkoxy, or optionally substituted alkyl; R 6, R 7, R 8, and R 10 are independently hydrogen, cyano, or halo; R 9 is optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted heterocycloalkyl, optionally substituted aryl, or optionally substituted heteroaryl; and R 11 is hydrogen, optionally substituted alkyl having one to six carbon atoms, optionally substituted aryl, or optionally substituted heteroaryl.
A method for wirelessly controlling a medical device by means of a remote control (10, 60, 70, 80), in which at least one control information for activating and/or deactivating a control function for controlling the device is input via at least one first input unit provided via a touchscreen of the remote control (10, 60, 70, 80), at least one release information is input via a second input unit (14, 62, 72, 82) of the remote control (10, 60, 70, 80), which is independent of the first input unit, and in which the control function of the device is only activated and/or deactivated when the control information is input if the release information is input via the second input unit (14, 62, 72, 82), characterized in that the second input unit (14, 62, 72, 82) is provided by at least one switching transponder, which comprises a transponder and an actuating element (18, 84) connected thereto, and the medical device to be controlled is an operating table.
A silicon carbide-based enhancement mode transistor, comprising: an n-type silicon carbide layer; an n-type well in the silicon carbide layer; a p-type source region in the n-type well at a surface of the silicon carbide layer; a p-type drain region spaced apart from the p-type source region and at the surface of the silicon carbide layer; a channel region defined between the p-type source region and the p-type drain region, wherein the channel region comprises a portion of the n-type well and has a hole mobility of at least 5 cm 2 /V-s at a gate voltage of -25V; a gate oxide layer on the channel region; a gate on the gate oxide layer; and a threshold adjustment region in the channel region, the threshold adjustment region comprising p-type dopants implanted into the n-type well at a net dopant concentration of 1 x 10 16 cm -3 to 5 x 10 18 cm -3, the threshold adjustment region being spaced apart from the surface of the channel region. an n-type silicon carbide layer; an n-type well in the silicon carbide layer; a p-type source region in the n-type well at a surface of the silicon carbide layer; a p-type drain region spaced apart from the p-type source region and at the surface of the silicon carbide layer; a channel region defined between the p-type source region and the p-type drain region, wherein the channel region comprises a portion of the n-type well and has a hole mobility of at least 5 cm 2 /V-s at a gate voltage of -25V; a gate oxide layer on the channel region; a gate on the gate oxide layer; and a threshold adjustment region in the channel region, the threshold adjustment region comprising p-type dopants implanted into the n-type well at a net dopant concentration of 1 x 10 16 cm -3 to 5 x 10 18 cm -3, the threshold adjustment region being spaced apart from the surface of the channel region.
A syringe assembly comprising: a barrel for containing one or more medicaments, a narrowed outlet for allowing the expulsion of said one or more medicaments from said barrel through said outlet; and a stopper (14; 14'; 14") disposed in the barrel defining and separating a first volume and a second volume within the syringe assembly, the stopper comprising: a permanent seal fluidly sealing the stopper to the barrel about the entire perimeter of the stopper intermediate the first volume and second volume; a resilient seal (22, 22'); and a channel bypassing the permanent seal, the channel having a first opening in fluid communication with the second volume and a second opening selectively sealed from the first volume by the resilient seal; wherein the resilient seal is moveable between a sealing configuration and an open configuration to selectively seal the channel from the first volume, where in the sealing configuration the resilient seal fluidly seals the stopper to the barrel so as to fluidly isolate said second opening of the channel from the first volume, and in the open configuration the second opening of the channel is in fluid communication with the first volume; and wherein the resilient seal is moveable from the sealing configuration to the open configuration upon fluid pressure in the first volume or second volume exceeding a first pressure threshold. a barrel for containing one or more medicaments, a narrowed outlet for allowing the expulsion of said one or more medicaments from said barrel through said outlet; and a stopper (14; 14'; 14") disposed in the barrel defining and separating a first volume and a second volume within the syringe assembly, the stopper comprising: a permanent seal fluidly sealing the stopper to the barrel about the entire perimeter of the stopper intermediate the first volume and second volume; a resilient seal (22, 22'); and a channel bypassing the permanent seal, the channel having a first opening in fluid communication with the second volume and a second opening selectively sealed from the first volume by the resilient seal; a permanent seal fluidly sealing the stopper to the barrel about the entire perimeter of the stopper intermediate the first volume and second volume; a resilient seal (22, 22'); and a channel bypassing the permanent seal, the channel having a first opening in fluid communication with the second volume and a second opening selectively sealed from the first volume by the resilient seal; wherein the resilient seal is moveable between a sealing configuration and an open configuration to selectively seal the channel from the first volume, where in the sealing configuration the resilient seal fluidly seals the stopper to the barrel so as to fluidly isolate said second opening of the channel from the first volume, and in the open configuration the second opening of the channel is in fluid communication with the first volume; and wherein the resilient seal is moveable from the sealing configuration to the open configuration upon fluid pressure in the first volume or second volume exceeding a first pressure threshold.
A method for manufacturing a low temperature poly-silicon (LTPS) thin film transistor, comprising a step of forming an active layer and an ohmic contact layer on a substrate, wherein the step of forming the active layer and the ohmic contact layer on the substrate comprises: forming an a-Si layer on the substrate; injecting foreign ions into a region of the a-Si layer where the ohmic contact layer is to be formed by ion injection, so as to form an initial ohmic contact layer at the region where the ohmic contact layer is to be formed, and refraining injecting the foreign ions into other region of the a-Si layer corresponding to a region occupied by the LTPS TFT in addition to the region of the a-Si layer where the ohmic contact layer is to be formed; subjecting the a-Si layer obtained after the ion injection without an annealing step in between to excimer laser annealing treatment so as to crystallize the a-Si layer into a poly-silicon layer, activate the injected ions and enable the initial ohmic contact layer to form the final ohmic contact layer; and patterning the poly-silicon layer obtained after the excimer laser annealing treatment, so as to form the active layer, wherein in the region occupied by the LTPS TFT, the poly-silicon layer located at a side of the ohmic contact layer away from the active layer is completely removed. forming an a-Si layer on the substrate; injecting foreign ions into a region of the a-Si layer where the ohmic contact layer is to be formed by ion injection, so as to form an initial ohmic contact layer at the region where the ohmic contact layer is to be formed, and refraining injecting the foreign ions into other region of the a-Si layer corresponding to a region occupied by the LTPS TFT in addition to the region of the a-Si layer where the ohmic contact layer is to be formed; subjecting the a-Si layer obtained after the ion injection without an annealing step in between to excimer laser annealing treatment so as to crystallize the a-Si layer into a poly-silicon layer, activate the injected ions and enable the initial ohmic contact layer to form the final ohmic contact layer; and patterning the poly-silicon layer obtained after the excimer laser annealing treatment, so as to form the active layer, wherein in the region occupied by the LTPS TFT, the poly-silicon layer located at a side of the ohmic contact layer away from the active layer is completely removed.
A method for operating a fuel cell comprising a membrane electrode assembly including a cathode, an anode and an electrolyte membrane interposed between both the electrodes, wherein the cathode has a layer comprising an oxygen reducing catalyst comprising (i) composite particles, the composite particles being particles in which primary particles of a compound of a metal element M1 are dispersed in a structure composed of carbon, the composite particles comprising an atom of at least one metal element M1 selected from the group consisting of titanium, niobium, zirconium, tantalum and tin, and atoms of carbon, nitrogen and oxygen, wherein carbon is contained at not less than 0.5 mol and not more than 7 mol, nitrogen is contained at more than 0 mol and not more than 1 mol, and oxygen is contained at not less than 1 mol and not more than 3 mol based on 1 mol of the whole of the metal element M1, and comprising (ii) particles composed of a noble metal element or its alloy, which method comprises supplying the cathode with an oxidizing agent gas which comprises an oxygen gas and which has a relative humidity at a temperature of the membrane electrode assembly of not more than 60%, and supplying the anode with a fuel gas. (i) composite particles, the composite particles being particles in which primary particles of a compound of a metal element M1 are dispersed in a structure composed of carbon, the composite particles comprising an atom of at least one metal element M1 selected from the group consisting of titanium, niobium, zirconium, tantalum and tin, and atoms of carbon, nitrogen and oxygen, wherein carbon is contained at not less than 0.5 mol and not more than 7 mol, nitrogen is contained at more than 0 mol and not more than 1 mol, and oxygen is contained at not less than 1 mol and not more than 3 mol based on 1 mol of the whole of the metal element M1, and comprising (ii) particles composed of a noble metal element or its alloy,
Pliers with two pliers legs (3, 4) crossing in a hinge pin with a hinge pin axis (x), of which one is to be regarded as movable and the other as stationary, wherein grip sections (8, 9) are formed on one side of the hinge pin and jaws (5, 6) are formed on the other side of the hinge pin, wherein further the movable pliers limb has a longitudinal slot with a toothing and the hinge pin located in a receptacle is movable out of a toothing engagement and the movable pliers limb passes through the stationary pliers limb, wherein further the longitudinal slot has an extension, which, in the case of closed pliers, extends transversely to a handle-side alignment of the pliers legs (3, 4), wherein the toothing can be overrun by pressing down the hinge pin in order to adjust a jaw opening width (w), characterised in that the pliers leg passing through having an elongate overlap region, in which the passing through pliers limb is covered on both sides by the passed through pliers limb, wherein furthermore the covering region is elongate and extends substantially at right angles to an adjustment direction (r) of the hinge pin in the longitudinal slot, with a width (g) which corresponds to 0.5 times or more the maximum adjustment dimension (f), and with a length (d) which corresponds to 2 times or more the maximum adjustment dimension (f).
A method for wireless communication, comprising: determining, by a user equipment, UE,, a failure associated with reception, by a base station, of an initial transmission of a random access message transmitted by the UE in a two-step random access procedure; further comprising receiving, from the base station and in response to the initial transmission, an indication of beam management information including beam management signaling for beam switching or beam refining; and transmitting, by the UE to the base station and based on determining the failure, a retransmission of at least a portion of the random access message. determining, by a user equipment, UE,, a failure associated with reception, by a base station, of an initial transmission of a random access message transmitted by the UE in a two-step random access procedure; further comprising receiving, from the base station and in response to the initial transmission, an indication of beam management information including beam management signaling for beam switching or beam refining; and transmitting, by the UE to the base station and based on determining the failure, a retransmission of at least a portion of the random access message.
A process for the production of styrene graft copolymers comprising the following steps: (i) provision and agglomeration of the graft base B present in an emulsion; (ii) addition of styrene monomers A1 and vinyl cyanide monomers A2 to the graft base B over a defined monomer feed time; and (iii) simultaneous graft copolymerization of the added styrene monomers A1 and of the vinyl cyanide monomers A2 onto the agglomerated graft base B, where, in step (ii), the ratio by mass of styrene monomers A1 to vinyl cyanide monomers A2 in the monomer feed in the final fifth of the monomer feed time is lower by at least 10% than the ratio by mass of the components of the monomer feed integrated over the entire monomer feed time. (i) provision and agglomeration of the graft base B present in an emulsion; (ii) addition of styrene monomers A1 and vinyl cyanide monomers A2 to the graft base B over a defined monomer feed time; and (iii) simultaneous graft copolymerization of the added styrene monomers A1 and of the vinyl cyanide monomers A2 onto the agglomerated graft base B,
A turbine power unit for a cutting tool, the power unit comprising: a turbine housing having an interior space configured to receive therein a fluid powered turbine supported for rotation on a ball bearing (150, 160) disposed within the turbine housing; a tool shank comprising an elongated portion and an end portion, wherein the turbine is directly coupled to the tool shank at the elongated portion, wherein the ball bearing (150, 160) is in direct contact with the elongated portion of the tool shank, wherein the end portion of the tool shank forms a cutting tip, and wherein the ball bearing (150, 160), turbine and tool shank form a removable assembly; a service opening (127, 128) through the turbine housing into the interior space thereof, the service opening (127, 128) configured to permit installation and removal of the removable assembly into and out of the interior space of the turbine housing; a removable cover releasably securable to the turbine housing and disposed over the service opening (127, 128) and transitionable between an open configuration in which the removable assembly can be installed into and removed from the interior space of the turbine housing through the service opening (127, 128), and a closed configuration in which the ball bearing (150, 160) is secured for operation within the turbine housing. a turbine housing having an interior space configured to receive therein a fluid powered turbine supported for rotation on a ball bearing (150, 160) disposed within the turbine housing; a tool shank comprising an elongated portion and an end portion, wherein the turbine is directly coupled to the tool shank at the elongated portion, wherein the ball bearing (150, 160) is in direct contact with the elongated portion of the tool shank, wherein the end portion of the tool shank forms a cutting tip, and wherein the ball bearing (150, 160), turbine and tool shank form a removable assembly; a service opening (127, 128) through the turbine housing into the interior space thereof, the service opening (127, 128) configured to permit installation and removal of the removable assembly into and out of the interior space of the turbine housing; a removable cover releasably securable to the turbine housing and disposed over the service opening (127, 128) and transitionable between an open configuration in which the removable assembly can be installed into and removed from the interior space of the turbine housing through the service opening (127, 128), and a closed configuration in which the ball bearing (150, 160) is secured for operation within the turbine housing.
Method for detecting parameters of a traversing or circulating material web in a material processing machine, characterised in that at least one oscillation parameter of at least one transverse oscillation occurring at the material web is contactlessly detected by means of at least one sensor, and at least one parameter relating to the material web and resulting from said oscillation parameter is determined, wherein a frequency and/or an amplitude and/or a phase of the transverse oscillation is detected as at least one oscillation parameter of a transverse oscillation, and a tensile force and/or tensile stress in a direction of movement of the material web and/or a speed and/or an elasticity modulus in a direction of movement of the material web and/or a relative humidity and/or a thickness of the material web is determined as at least one parameter of the material web, and wherein oscillations occurring in a longitudinal and/or cross direction at the material web due to self-excitation are detected as transverse oscillations, or the transverse oscillations of the material web occurring in a longitudinal and/or cross direction are separately excited by mechanical excitation of the material web.
A method for fabricating lead wettable surfaces, the method comprising: providing a lead frame comprising a plurality of lead sets, each lead set comprising a die lead and bond lead having a die surface and a plating surface, vias between adjacent lead sets in a first direction, and an integrated circuit die arranged on the die surface of each die lead; applying a mold chase to the plating surface of each of the die leads and the bond leads, the mold chase contacting the plurality of lead sets, the mold chase comprising mold chase extensions extending into the vias between each adjacent lead set in the first direction, each mold chase extension having a peak surface, wherein the mold chase extensions fill in the entire space between the sidewalls (55, 56) of the vias; partially embedding the lead frame assembly in a mold encapsulation such that portions of the mold encapsulation contact the peak surface of each of the mold chase extensions; removing the mold chase to expose the vias, each via comprising a first lead sidewall of the die lead of each lead set and the second lead sidewall of the bond lead of each lead set; and plating the plating surface of each of the die leads and the bond leads and plating the first lead sidewall and the second lead sidewall with an electrical plating. providing a lead frame comprising a plurality of lead sets, each lead set comprising a die lead and bond lead having a die surface and a plating surface, vias between adjacent lead sets in a first direction, and an integrated circuit die arranged on the die surface of each die lead; applying a mold chase to the plating surface of each of the die leads and the bond leads, the mold chase contacting the plurality of lead sets, the mold chase comprising mold chase extensions extending into the vias between each adjacent lead set in the first direction, each mold chase extension having a peak surface, wherein the mold chase extensions fill in the entire space between the sidewalls (55, 56) of the vias; partially embedding the lead frame assembly in a mold encapsulation such that portions of the mold encapsulation contact the peak surface of each of the mold chase extensions; removing the mold chase to expose the vias, each via comprising a first lead sidewall of the die lead of each lead set and the second lead sidewall of the bond lead of each lead set; and plating the plating surface of each of the die leads and the bond leads and plating the first lead sidewall and the second lead sidewall with an electrical plating.
Sheet-processing machine for producing banknotes or other securities, having a plurality of modules coupled one after another for processing sheets, which sheets are provided with a plurality of copies arranged in columns and rows, comprising: - a sheet feeder module having a sheet feeder for feeding individual sheets; - an inspection module coupled to the sheet feeder module for monitoring the printing quality of the sheets; and - a numbering module coupled to the inspection module for applying serial numbering to the sheets, wherein the sheet feeder module, the inspection module and the numbering module are configured such that the inspection module can be uncoupled from the other modules, and a sheet input interface of the numbering module can be coupled to a sheet output interface of the sheet feeder module. - a sheet feeder module having a sheet feeder for feeding individual sheets; - an inspection module coupled to the sheet feeder module for monitoring the printing quality of the sheets; and - a numbering module coupled to the inspection module for applying serial numbering to the sheets,
Recombinant IL-12 for use in increasing the level of endogenous erythropoietin in the blood of a subject that has chronic renal failure, chronic kidney disease, cardiovascular disease, or congestive heart failure.