mhurhangee/ep-ind-claims huggingface dataset:
Use of a compound of formula or: wherein L1 and L3 are each Linker groups; in a method of preparation of a radiolabelled vector; wherein said method comprises either: (i) reaction of a compound of formula with a compound of formula in the presence of a Cu catalyst to give a conjugate of Formula; R*-L2-N 3 or (ii) reaction of a compound of formula with a compound of formula in the presence of a Cu catalyst to give a conjugate of Formula; wherein: L1, L2, L3, and L4 are each Linker groups, which are each independently a C 1-60 hydrocarbyl group optionally including 1 to 30 heteroatoms, alkyl, alkenyl, alkynyl chains, aromatic, polyaromatic, and heteroaromatic rings any of which may be optionally substituted with one or more ether, thiooether, sulphonamide, amide functional groups, amino acid, carbohydrate subunits, or monomers and polymers comprising ethyleneglycol; R* is a reporter moiety which comprises a radionuclide; Vector is a peptide, protein, hormone, cell, bacterium, virus, or small drug like molecule; wherein the vector of formula or and the radiolabelled vector is the same. (i) reaction of a compound of formula with a compound of formula in the presence of a Cu catalyst to give a conjugate of Formula; R*-L2-N 3 or (ii) reaction of a compound of formula with a compound of formula in the presence of a Cu catalyst to give a conjugate of Formula; L1, L2, L3, and L4 are each Linker groups, which are each independently a C 1-60 hydrocarbyl group optionally including 1 to 30 heteroatoms, alkyl, alkenyl, alkynyl chains, aromatic, polyaromatic, and heteroaromatic rings any of which may be optionally substituted with one or more ether, thiooether, sulphonamide, amide functional groups, amino acid, carbohydrate subunits, or monomers and polymers comprising ethyleneglycol; R* is a reporter moiety which comprises a radionuclide; Vector is a peptide, protein, hormone, cell, bacterium, virus, or small drug like molecule; wherein the vector of formula or and the radiolabelled vector is the same.
Electrode for an electrical energy storage battery comprising a material comprising a first compound LiFePO 4 and at least two different second compounds chosen from the compounds of following formula: Li 1+a (Ni x Mn y Co z) 1-a O 2 where a, x, y and z are real numbers with 0≤a≤0.3, 0≤x≤1, 0≤y≤1, 0≤z≤1 and x+y+z=1, said at least two second compounds comprise the compound LiNi 1/3 Mn 1/3 Co 1/3 O 2 and the compound Li 1.15 (Ni 1/3 Mn 1/3 Co 1/3) 0.85 O 2, the first compound represents from 1 to 40% by weight, preferably from 5 to 30% by weight and in particular from 10 to 20% by weight, with respect to the total weight of the material, and said at least two second compounds represent from 30 to 95% by weight, preferably from 40 to 90% by weight and in particular from 60 to 85% by weight, with respect to the total weight of the material, and said at least two second compounds represent from 30 to 95% by weight, preferably from 40 to 90% by weight in particular from 60 to 85% by weight, with respect to the total weight of the material, and said second compound represents from 1 to 50% by weight, preferably from 5 to 30% by weight and in particular from 10 to 20% by weight, with respect to the total weight of the material.
A method for manufacturing a resin-coated metal sheet comprising the steps of: forming a tin-plating layer on at least one surface of a metal sheet; applying a silane coupling agent to the tin-plating layer by coating; forming a resin layer on the silane coupling agent coating layer; heating the metal sheet and thereby heating at least an interface region between the tin-plating layer and the silane coupling agent coating layer, the silane coupling agent coating layer, and an interface region between the silane coupling agent coating layer and the resin layer at a temperature which falls within a range from a temperature 10°C below a melting point of a resin of the resin layer to a temperature 100°C above the melting point of the resin of the resin layer, and wherein after heating the metal sheet, the resin is cooled at a rate of 30°C/sec or more in the crystallization temperature region of the resin, wherein the cooling rate is measured from a maximum sheet temperature to a room temperature. forming a tin-plating layer on at least one surface of a metal sheet; applying a silane coupling agent to the tin-plating layer by coating; forming a resin layer on the silane coupling agent coating layer; heating the metal sheet and thereby heating at least an interface region between the tin-plating layer and the silane coupling agent coating layer, the silane coupling agent coating layer, and an interface region between the silane coupling agent coating layer and the resin layer at a temperature which falls within a range from a temperature 10°C below a melting point of a resin of the resin layer to a temperature 100°C above the melting point of the resin of the resin layer, and wherein after heating the metal sheet, the resin is cooled at a rate of 30°C/sec or more in the crystallization temperature region of the resin, wherein the cooling rate is measured from a maximum sheet temperature to a room temperature.
Device for recognising a group of conductive signature figurines having a base having a pinhole grid on a capacitive screen of a terminal, in which a region of the figurine which extends from the region in which it is held by the user's hand to the base region of contact with the screen is conductive, the figurine comprises, on its base, a signature region which comprises a grid of conductive pinholes which obeys a specific placement rule, the placement rule is held by application software of the terminal which manages the screen contacts, the placement rule of the pinholes is recognised by the application software which identifies the identity of the pinhole grid, the X, Y position of the pinhole grid on the screen and the angular orientation of the pinhole grid on the screen, characterised in that the grid comprises three pinholes which are distributed over a circle, the circle over which the three pinholes of a figurine are distributed is the same for all the figurines, with a master pinhole which is always in the same position on the base of the figurine, the master pinhole being the apex of an isosceles triangle (20A, 20B, 20C).
A silencer cover for a saddle-ride type vehicle provided for a silencer connected to a downstream end of an exhaust pipe (63, 64) of an engine, wherein at least one point of multiple points at which the silencer cover is attached to the silencer employs a slide structure such that the silencer is slidable relative to the silencer cover, characterized in that the silencer cover is formed of a first cover part and a second cover part (152, 153), wherein the silencer is provided with a fixing support part for supporting the silencer cover, and the fixing support part is provided to the first cover part, the slide structure is provided to the second cover part, and the first cover part and the second cover part (152, 153) are connected to each other with an elastic member therebetween.
Door drive device for driving a door leaf in an opening direction and a closing direction via a traction mechanism, which comprises at least a first traction means and at least a second traction means, which traction means (Z1, Z2) are subjected to a tensile load during the operation of the door drive device, wherein the door drive device includes a traction means monitoring device configured for both monitoring the first traction means for breakage or a voltage drop and monitoring the second traction means for breakage or a voltage drop, wherein the traction means monitoring device includes a first mechanical blocking device, which is provided with a first blocking element which in a blocking position blocks or impedes the movement of the door leaf in the closing direction but allows a movement of the door leaf in the opening direction and in a releasing position releases the movement of the door leaf in the closing direction and opening direction, and which is provided with a first tension sensing and holding device for sensing a traction means tension of the first traction means and for holding the first blocking element as a function of this traction means tension, wherein the first tension sensing and holding device holds the first blocking element in the releasing position and at a reduction of a tension of the first traction means initiates a movement of the first blocking element to its blocking position by a first preload force, characterized in that the traction means monitoring device further includes a second mechanical blocking device and a load monitoring device, that the second mechanical blocking device is provided with a second blocking element, which in a blocking position blocks or impedes the movement of the door leaf in the opening direction but allows a movement of the door leaf in the closing direction and in a releasing position releases the movement of the door leaf in the closing direction and opening direction, and is provided with a second tension sensing and holding device for sensing a traction means tension of the second traction means and for holding the second blocking element as a function of this traction means tension, wherein the second tension sensing and holding device holds the second blocking element in the releasing position and at a reduction of a tension of the second traction means initiates a movement of the second blocking element to its blocking position by a second preload force, that the load monitoring device is configured for monitoring a motor driving unit to be connected to the traction mechanism for driving the door leaf, for exceeding a load threshold, wherein for monitoring the load, the load monitoring device is configured for monitoring a load-dependent parameter of the motor driving unit such as in particular the motor current, motor power or speed, and that the load monitoring device is set in a manner such as to detect a changed load caused by any intervention of each of the first and second blocking devices (150, 160) in order to switch off the motor driving unit.
An exhaust gas sampling and analysis system comprising a main flow channel whose proximal end is connected to an introduction port configured to introduce an exhaust gas, a first suction pump connected to the main flow channel configured to introduce the exhaust gas into the main flow channel, a flow restriction mechanism arranged on the main flow channel, a measurement flow channel that extends from the main flow channel in the downstream of the flow restriction mechanism and that samples and circulates the exhaust gas flowing in the main flow channel, an analysis device that is arranged on the measurement flow channel and that analyzes the sampled exhaust gas, a compensation flow channel that extends from the main flow channel in the downstream of a point from which the measurement flow channel extends and that supplies the main flow channel with a compensation gas, and a flow rate adjustment mechanism that is arranged on the compensation flow channel and that adjusts a flow rate of the compensation gas to be supplied to the main flow channel, wherein the first suction pump further depressurizes the pressure of the exhaust gas having a pressure which is depressurized when the exhaust gas passes through the flow restriction mechanism to a predetermined value, and the flow rate adjustment mechanism adjusts the flow rate of the compensation gas supplied to the main flow channel so as to make the pressure of the exhaust gas at the point from which the measurement flow channel extends at a predetermined value. a main flow channel whose proximal end is connected to an introduction port configured to introduce an exhaust gas, a first suction pump connected to the main flow channel configured to introduce the exhaust gas into the main flow channel, a flow restriction mechanism arranged on the main flow channel, a measurement flow channel that extends from the main flow channel in the downstream of the flow restriction mechanism and that samples and circulates the exhaust gas flowing in the main flow channel, an analysis device that is arranged on the measurement flow channel and that analyzes the sampled exhaust gas, a compensation flow channel that extends from the main flow channel in the downstream of a point from which the measurement flow channel extends and that supplies the main flow channel with a compensation gas, and a flow rate adjustment mechanism that is arranged on the compensation flow channel and that adjusts a flow rate of the compensation gas to be supplied to the main flow channel, wherein the first suction pump further depressurizes the pressure of the exhaust gas having a pressure which is depressurized when the exhaust gas passes through the flow restriction mechanism to a predetermined value, and the flow rate adjustment mechanism adjusts the flow rate of the compensation gas supplied to the main flow channel so as to make the pressure of the exhaust gas at the point from which the measurement flow channel extends at a predetermined value.
An agent suitable for use in in vivo imaging comprising duramycin modified with 6-hydrazinonicotinate (HYNIC) which is conjugated to an radioisotope, wherein the radioisotope is selected from: 99m Tc, 111 In +3, 111 In 0, 111 In -5 and 64 Cu 0, 64 Cu +1, 64 Cu +2 or 64 Cu +3 and which further comprises tricine and a phosphine as co-ligands of the isotope.
A method for a computer-aided installation of spatially decentralized, electrical components of a machine by multiple users with user-specific support, comprising: Receiving an identifier of an installation element, preferably a cable or a component; Providing an installation specification which specifies an assignment of the installation element for connection to an electrical component; Identifying the electrical component based on the provided installation specification; and Initiating an output of at least one installation information based on the received identifier and the identified component; wherein the method is applied by a plurality of users simultaneously or at least partially simultaneously. Receiving an identifier of an installation element, preferably a cable or a component; Providing an installation specification which specifies an assignment of the installation element for connection to an electrical component; Identifying the electrical component based on the provided installation specification; and Initiating an output of at least one installation information based on the received identifier and the identified component; wherein the method is applied by a plurality of users simultaneously or at least partially simultaneously.
A solid dosage form comprising particles consisting of amorphous bardoxolone methyl and a glass-forming excipient admixed with particles consisting of hydroxypropyl methyl cellulose.
Storage operating device with a drive which is supplied with electrical energy from a power supply network via an inverter, wherein the inverter has an electrical intermediate circuit, wherein the storage operating device has a control device which is designed to detect and react to a power failure, characterized in that to detect a power failure of the power supply network the control device has means for monitoring the intermediate circuit voltage in the intermediate circuit, wherein when a power failure is detected the control device switches the storage operating device into a generating operating phase of the drive, wherein the switching is effected by setting a predefined pilot control value for the drive torque. to detect a power failure of the power supply network the control device has means for monitoring the intermediate circuit voltage in the intermediate circuit, wherein when a power failure is detected the control device switches the storage operating device into a generating operating phase of the drive, wherein the switching is effected by setting a predefined pilot control value for the drive torque.
A method for sensing a condition of a hydrocarbon reservoirfrom a subterranean production well having a lined section with a liner and an adjacent unlined section, the method comprising the steps of: (a) attaching an electric current sensor to the liner, proximate to a lower end of the liner, adjacent to the unlined section, to measure the electric current induced on the liner; (b) locating a plurality of electromagnetic sources along the adjacent unlined section; (c) generating a source current with the electromagnetic sources and measuring a resulting current induced in the liner by each electromagnetic source with the electric current sensor wherein the resulting current induced is an original resulting induced current in the liner by each electromagnetic source with the electric current sensor; (d) repeating step (c) and comparing a subsequent resulting induced current in the liner by each electromagnetic source to the original resulting induced current by the corresponding source to determine a change in resulting induced currents over time; and (e) inverting the original resulting induced currents and the subsequent resulting induced currents or the change in resulting induced currents over time to obtain an electric conductivity distribution in the reservoir, a change over time of the electric conductivity distribution in the reservoir and identify a possibly approaching water front. (a) attaching an electric current sensor to the liner, proximate to a lower end of the liner, adjacent to the unlined section, to measure the electric current induced on the liner; (b) locating a plurality of electromagnetic sources along the adjacent unlined section; (c) generating a source current with the electromagnetic sources and measuring a resulting current induced in the liner by each electromagnetic source with the electric current sensor wherein the resulting current induced is an original resulting induced current in the liner by each electromagnetic source with the electric current sensor; (d) repeating step (c) and comparing a subsequent resulting induced current in the liner by each electromagnetic source to the original resulting induced current by the corresponding source to determine a change in resulting induced currents over time; and (e) inverting the original resulting induced currents and the subsequent resulting induced currents or the change in resulting induced currents over time to obtain an electric conductivity distribution in the reservoir, a change over time of the electric conductivity distribution in the reservoir and identify a possibly approaching water front.
A lighting device comprising: a light source; a light diffusion plate arranged opposite the light source, the light diffusion plate being configured to diffuse light from the light source; and a sheet-like optical member, the optical member including a transmitting part that is configured to transmit the light emitted from the light source and a reflecting part that is configured to reflect the light emitted from the light source, the optical member is disposed between the light diffusion plate and the light source, characterised in that the optical member is supported by a support portion that is integrally provided to the light diffusion plate. a light source; a light diffusion plate arranged opposite the light source, the light diffusion plate being configured to diffuse light from the light source; and a sheet-like optical member, the optical member including a transmitting part that is configured to transmit the light emitted from the light source and a reflecting part that is configured to reflect the light emitted from the light source, the optical member is disposed between the light diffusion plate and the light source, characterised in that the optical member is supported by a support portion that is integrally provided to the light diffusion plate.
A resource scheduling method, wherein the method comprises: receiving, by a user terminal, scheduling indication information from a base station, wherein the scheduling indication information comprises pre-scheduling information and dynamic scheduling information, wherein the pre-scheduling information indicates whether the base station allocates a radio resource to the user terminal in a pre-scheduling resource range, the dynamic scheduling information indicates whether the base station allocates a radio resource to the user terminal in a dynamic scheduling resource range, the radio resource indicated by the pre-scheduling information is a time-frequency resource in the pre-scheduling resource range, the pre-scheduling resource range is a part of an available time-frequency resource range in at least one scheduling period, and the dynamic scheduling resource range is the other part of the available time-frequency resource range in the at least one scheduling period; when the pre-scheduling information indicates that the base station does not allocate a radio resource to the user terminal in the pre-scheduling resource range, skipping performing, by the user terminal, control signaling detection in the pre-scheduling resource range; when the dynamic scheduling information indicates that the base station allocates a radio resource to the user terminal in the dynamic scheduling resource range, performing, by the user terminal, control signaling detection on a resource in the dynamic scheduling resource range. receiving, by a user terminal, scheduling indication information from a base station, wherein the scheduling indication information comprises pre-scheduling information and dynamic scheduling information, wherein the pre-scheduling information indicates whether the base station allocates a radio resource to the user terminal in a pre-scheduling resource range, the dynamic scheduling information indicates whether the base station allocates a radio resource to the user terminal in a dynamic scheduling resource range, the radio resource indicated by the pre-scheduling information is a time-frequency resource in the pre-scheduling resource range, the pre-scheduling resource range is a part of an available time-frequency resource range in at least one scheduling period, and the dynamic scheduling resource range is the other part of the available time-frequency resource range in the at least one scheduling period; when the pre-scheduling information indicates that the base station does not allocate a radio resource to the user terminal in the pre-scheduling resource range, skipping performing, by the user terminal, control signaling detection in the pre-scheduling resource range; when the dynamic scheduling information indicates that the base station allocates a radio resource to the user terminal in the dynamic scheduling resource range, performing, by the user terminal, control signaling detection on a resource in the dynamic scheduling resource range.