mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing substituted pyridylmethylbenzamide derivatives of the formula or salts thereof, wherein p is an integer equal to 1, 2, 3 or 4, q is an integer equal to 1, 2, 3 or 4, X is independently selected from the group consisting of hydrogen, halogen, (C 1 -C 4)-alkyl and (C 1 C 4)-haloalkyl with the proviso that at least one X is halogen, Y is halogen, characterized in that it comprises the following steps reacting a substituted 2-(aminomethyl)pyridyl derivative according to formula or salts thereof wherein p and X are defined as above, and wherein the compound of formula is obtained via a Raney-Nickel hydrogenation, in a suitable solvent in the presence of a suitable base at a temperature from 0°C to +50°C with a compound of formula wherein q is an integer equal to 1, 2, 3 or 4, Y is halogen and L 1 is a leaving group, heating the resulting reaction mixture to a temperature from +70°C to +90°C, acidifying the reaction mixture with a suitable acid to a pH value of 0 to 3, separating the phases and discarding the aqueous phase, adding water and a suitable base to adjust the pH value of 4 to 6, separating the phases and discarding the aqueous phase, cooling down the reaction mixture slowly to 0°C to +10°C filtering the reaction mixture, washing the filter cake with a suitable solvent and drying the wet filter cake to yield a compound of formula or salts thereof. p is an integer equal to 1, 2, 3 or 4, q is an integer equal to 1, 2, 3 or 4, X is independently selected from the group consisting of hydrogen, halogen, (C 1 -C 4)-alkyl and (C 1 C 4)-haloalkyl with the proviso that at least one X is halogen, Y is halogen, reacting a substituted 2-(aminomethyl)pyridyl derivative according to formula or salts thereof wherein p and X are defined as above, and wherein the compound of formula is obtained via a Raney-Nickel hydrogenation, in a suitable solvent in the presence of a suitable base at a temperature from 0°C to +50°C with a compound of formula wherein q is an integer equal to 1, 2, 3 or 4, Y is halogen and L 1 is a leaving group, wherein p and X are defined as above, and wherein the compound of formula is obtained via a Raney-Nickel hydrogenation, in a suitable solvent in the presence of a suitable base at a temperature from 0°C to +50°C with a compound of formula wherein q is an integer equal to 1, 2, 3 or 4, Y is halogen and L 1 is a leaving group, q is an integer equal to 1, 2, 3 or 4, Y is halogen and L 1 is a leaving group, heating the resulting reaction mixture to a temperature from +70°C to +90°C, acidifying the reaction mixture with a suitable acid to a pH value of 0 to 3, separating the phases and discarding the aqueous phase, adding water and a suitable base to adjust the pH value of 4 to 6, separating the phases and discarding the aqueous phase, cooling down the reaction mixture slowly to 0°C to +10°C filtering the reaction mixture, washing the filter cake with a suitable solvent and drying the wet filter cake to yield a compound of formula or salts thereof.
A downhole completion system arranged in a borehole, comprising: - a production casing having an axial extension, an inside, an inner diameter (D i) and an opening for providing fluid communication between the borehole and the inside, - a sleeve or a completion component arranged at least partly movably along or rotatably around the axial extension, the sleeve or the completion component being arranged opposite the opening for opening, choking or closing the fluid communication, the sleeve having a profile facing the inside of the casing, and - a sleeve control for moving the sleeve to open, choke or close the opening, wherein the sleeve control comprises: - a first part having at least one member engaging the profile, - a second part having: - a fixation unit fixating the sleeve control in the casing, - an actuator for moving the first part in relation to the second part, - a power supply, such as a battery, supplying power to the actuator, and - a first communication module for receiving control signals from surface. - a production casing having an axial extension, an inside, an inner diameter (D i) and an opening for providing fluid communication between the borehole and the inside, - a sleeve or a completion component arranged at least partly movably along or rotatably around the axial extension, the sleeve or the completion component being arranged opposite the opening for opening, choking or closing the fluid communication, the sleeve having a profile facing the inside of the casing, and - a sleeve control for moving the sleeve to open, choke or close the opening, - a first part having at least one member engaging the profile, - a second part having: - a fixation unit fixating the sleeve control in the casing, - an actuator for moving the first part in relation to the second part, - a power supply, such as a battery, supplying power to the actuator, and - a first communication module for receiving control signals from surface. - a fixation unit fixating the sleeve control in the casing, - an actuator for moving the first part in relation to the second part, - a power supply, such as a battery, supplying power to the actuator, and - a first communication module for receiving control signals from surface.
Device for protecting apparatuses comprising a frame structure shaped substantially like a parallelepiped, and, a side panel and/or a front panel and/or an upper panel, said frame structure comprising at least two separable portions comprising at least one dismountable cross-member and some remaining sides,wherein said at least one dismountable cross-member and said remaining sides can be connected through fastening means, characterised in that at least one of said side panels, said front panel and said upper panel has at least one pre-fractured area to make it easier to mount and dismount said device in the case of preexisting apparatuses equipped with fixed pipes and/or tubes.
Method for forwarding data between secured computer systems in a computer network infrastructure, wherein data packets are transmitted along a predetermined communication path structure from a source computer system to at least one target computer system by means of a group of broker computer systems, wherein the communication path structure comprises a plurality of parallel sub-paths, and wherein both the source computer system and the target computer system keep predetermined network ports, used for this method, permanently closed in such a way that a connection establishment from the exterior to the source computer system or to the target computer system is not permitted, and thus access via a network by means of these network ports is permanently prevented while performing the method, wherein, however, the source computer system or the target computer system can establish a connection to a respective broker computer system in order to store data packets in the broker computer system or to fetch data packets from there.
A rectifying device of a vehicle alternator configured to be incorporated in a vehicle alternator and to rectify an AC output voltage of the vehicle alternator into a DC voltage, the rectifying device being characterized in that: the rectifying device comprises a heat sink, a circuit board including a connection terminal disposed to be orthogonal to the heat sink, the circuit board being disposed in parallel with the heat sink, and a diode including a metallic base that has one surface thereof joined to the heat sink, an IC chip joined to the other surface of the metallic base, a sealing resin body with which the IC chip is molded, and a connection lead that has one end thereof electrically coupled to the IC chip and has the other end thereof joined to the connection terminal of the circuit board; the connection lead of the diode includes a linear part that is extended in parallel from the metallic base and bared from the sealing resin body, and a bent part that is bent 90° or more substantially like an arc from the linear part; characterized in that the bending radius R of the bent part is set to a value larger than a separation distance w in a horizontal direction between the terminal of the linear part and the distal part of the connection lead, the horizontal direction being the direction in which the linear part extends from the sealing resin body. the rectifying device comprises a heat sink, a circuit board including a connection terminal disposed to be orthogonal to the heat sink, the circuit board being disposed in parallel with the heat sink, and a diode including a metallic base that has one surface thereof joined to the heat sink, an IC chip joined to the other surface of the metallic base, a sealing resin body with which the IC chip is molded, and a connection lead that has one end thereof electrically coupled to the IC chip and has the other end thereof joined to the connection terminal of the circuit board; the connection lead of the diode includes a linear part that is extended in parallel from the metallic base and bared from the sealing resin body, and a bent part that is bent 90° or more substantially like an arc from the linear part; characterized in that the bending radius R of the bent part is set to a value larger than a separation distance w in a horizontal direction between the terminal of the linear part and the distal part of the connection lead, the horizontal direction being the direction in which the linear part extends from the sealing resin body.
A terminal comprising: a control section configured to arrange a demodulation reference signal, DMRS, in a first resource, and configured to arrange a phase tracking reference signal, PTRS, at an interval of a number of symbols in a set of second resources with a symbol of the DMRS as a starting point, and a transmitting section configured to transmit, to a base station apparatus, the DMRS and the PTRS that are arranged in the first resource and the set of second resources, respectively, characterized in that, when the control section arranges the PTRS at the interval of the number of symbols from a symbol of a first DMRS as a starting point, and when the control section arranges a second DMRS within two consecutive PTRSs, the control section is configured to shift a PTRS of the two consecutive PTRSs by a number of symbols such that the PTRSs subsequent to the second DMRS are arranged in the set of second resources at the interval of the number of symbols from a symbol of the second DMRS as a starting point; wherein the interval is at least two symbols. a control section configured to arrange a demodulation reference signal, DMRS, in a first resource, and configured to arrange a phase tracking reference signal, PTRS, at an interval of a number of symbols in a set of second resources with a symbol of the DMRS as a starting point, and a transmitting section configured to transmit, to a base station apparatus, the DMRS and the PTRS that are arranged in the first resource and the set of second resources, respectively, characterized in that, when the control section arranges the PTRS at the interval of the number of symbols from a symbol of a first DMRS as a starting point, and when the control section arranges a second DMRS within two consecutive PTRSs, the control section is configured to shift a PTRS of the two consecutive PTRSs by a number of symbols such that the PTRSs subsequent to the second DMRS are arranged in the set of second resources at the interval of the number of symbols from a symbol of the second DMRS as a starting point; wherein the interval is at least two symbols.
A pod for a vehicle, vessel or craft, comprising: an electrical device; a thermal management system for the electrical device, the thermal management system comprising: a heat-activated release hydrogen storage tank; and a fluid coolant comprising a carrier fluid and encapsulated phase change material particles suspended in the carrier fluid; and an auxiliary power unit, fuelled, at least in part, by the released hydrogen, and adapted to provide power to both the electrical device and the thermal management system. an electrical device; a thermal management system for the electrical device, the thermal management system comprising: a heat-activated release hydrogen storage tank; and a fluid coolant comprising a carrier fluid and encapsulated phase change material particles suspended in the carrier fluid; and a heat-activated release hydrogen storage tank; and a fluid coolant comprising a carrier fluid and encapsulated phase change material particles suspended in the carrier fluid; and an auxiliary power unit, fuelled, at least in part, by the released hydrogen, and adapted to provide power to both the electrical device and the thermal management system.
A modular building construction system for fabricating a facility comprising: a plurality of primary function modules, each primary function module configured to house equipment for a primary function; at least one transition module configured to cooperate with at least two of the plurality of primary function modules in order to allow people to move from at least one of the primary function modules to at least one other of the primary function modules via the transition module, and a support module configured to house equipment for supporting the primary function modules and the at least one transition module, characterised in that each primary function module is configured to receive at least one preassembled service module comprising at least one of ventilation ducting (138a, 142a, 144a), an electrical cable tray (154a, 156a, 158a, 160a, 162a), and piping (146a, 148a, 150a, 152a) for supply of at least one fluid to the primary function module, wherein each primary function module is configured such that the preassembled service module is mounted at the ceiling of the primary function module. a plurality of primary function modules, each primary function module configured to house equipment for a primary function; at least one transition module configured to cooperate with at least two of the plurality of primary function modules in order to allow people to move from at least one of the primary function modules to at least one other of the primary function modules via the transition module, and a support module configured to house equipment for supporting the primary function modules and the at least one transition module, characterised in that each primary function module is configured to receive at least one preassembled service module comprising at least one of ventilation ducting (138a, 142a, 144a), an electrical cable tray (154a, 156a, 158a, 160a, 162a), and piping (146a, 148a, 150a, 152a) for supply of at least one fluid to the primary function module, wherein each primary function module is configured such that the preassembled service module is mounted at the ceiling of the primary function module.
An apparatus for processing an audio signal, the apparatus comprising: an input buffer for storing at least one frame of an encoded audio bitstream, wherein the encoded audio bitstream includes audio data and a metadata segment, and the metadata segment includes a header, one or more metadata payloads and protection data; an audio decoder coupled to the input buffer for decoding the audio data to produce decoded audio data; a parser coupled to or integrated with the audio decoder, wherein the parser is configured to parse the encoded audio bitstream; and an output buffer for storing the decoded audio data, wherein the header of the metadata segment includes a syncword identifying the start of the metadata segment, the one or more metadata payloads include metadata indicative of at least one boundary between consecutive audio programs, the protection data is located after the one or more metadata payloads, and the protection data is capable of being used to verify the integrity of the metadata segment and the one or more payloads within the metadata segment. an input buffer for storing at least one frame of an encoded audio bitstream, wherein the encoded audio bitstream includes audio data and a metadata segment, and the metadata segment includes a header, one or more metadata payloads and protection data; an audio decoder coupled to the input buffer for decoding the audio data to produce decoded audio data; a parser coupled to or integrated with the audio decoder, wherein the parser is configured to parse the encoded audio bitstream; and an output buffer for storing the decoded audio data, wherein the header of the metadata segment includes a syncword identifying the start of the metadata segment, the one or more metadata payloads include metadata indicative of at least one boundary between consecutive audio programs, the protection data is located after the one or more metadata payloads, and the protection data is capable of being used to verify the integrity of the metadata segment and the one or more payloads within the metadata segment.
A clothing drying apparatus comprising: a first drying apparatus configured to supply hot air to an inside of a rotary drum of the first drying apparatus to dry laundry in the rotary drum; and a second drying apparatus configured to be coupled to the first drying apparatus, wherein the second drying apparatus includes: a dry chamber configured to receive laundry and including a discharge hole; a hot air unit configured to supply hot air to an inside of the dry chamber through the discharge hole; and a cover shelf disposed in the dry chamber and having a plurality of through holes configured to allow the hot air, supplied by the hot air unit to a lower side of the cover shelf, to flow, through the plurality of through holes, from the lower side of the cover shelf to an upper side of the cover shelf to dry the laundry received in the dry chamber and supported on the upper side of the cover shelf, wherein the cover shelf includes a plurality of ribs communicating with the plurality of through holes and protruding toward a bottom surface of the dry chamber, characterized in that, a height of the plurality of ribs decreases toward the discharge hole. a first drying apparatus configured to supply hot air to an inside of a rotary drum of the first drying apparatus to dry laundry in the rotary drum; and a second drying apparatus configured to be coupled to the first drying apparatus, wherein the second drying apparatus includes: a dry chamber configured to receive laundry and including a discharge hole; a hot air unit configured to supply hot air to an inside of the dry chamber through the discharge hole; and a cover shelf disposed in the dry chamber and having a plurality of through holes configured to allow the hot air, supplied by the hot air unit to a lower side of the cover shelf, to flow, through the plurality of through holes, from the lower side of the cover shelf to an upper side of the cover shelf to dry the laundry received in the dry chamber and supported on the upper side of the cover shelf, wherein the cover shelf includes a plurality of ribs communicating with the plurality of through holes and protruding toward a bottom surface of the dry chamber, characterized in that, a height of the plurality of ribs decreases toward the discharge hole. a dry chamber configured to receive laundry and including a discharge hole; a hot air unit configured to supply hot air to an inside of the dry chamber through the discharge hole; and a cover shelf disposed in the dry chamber and having a plurality of through holes configured to allow the hot air, supplied by the hot air unit to a lower side of the cover shelf, to flow, through the plurality of through holes, from the lower side of the cover shelf to an upper side of the cover shelf to dry the laundry received in the dry chamber and supported on the upper side of the cover shelf, wherein the cover shelf includes a plurality of ribs communicating with the plurality of through holes and protruding toward a bottom surface of the dry chamber, characterized in that, a height of the plurality of ribs decreases toward the discharge hole.
Method for correcting image values of a measuring object, said image values being determined by means of a photoelectric image measuring device functioning pixel by pixel, with respect to at least one influencing factor influencing the measuring result with the aim of at least partially eliminating the metrological effect of this at least one influencing factor, wherein the image values (106; 206) determined by the image measuring device are converted into corrected image values (108; 107) by means of a correction model (105; 205) parameterised by correction parameters (104; 204), said image values completely or at least partially no longer including the metrological effect of the influencing factor, wherein the correction parameters (104; 204) used for the parameterised correction model (105; 205) are preferably ascertained by means of reference values (101, 102; 201, 202) measured at selected reference measuring points preferably of the same measuring object by means of a reference measuring device and the image measuring device, wherein a reference measuring device is used in which the at least one influencing factor is not present or has no or only a very negligible metrological effect, characterised in that a measuring device functioning pixel by pixel with measuring geometry deviating from the norm is used as the image measuring device, and the image values (106; 206) are corrected with respect to the influence of the measuring geometry of the image measuring device deviating from the norm, wherein a measuring device having standard measuring geometry is used as the reference measuring device, wherein the normalised measuring geometry allows illumination angles ranging from 40[deg.] to 50[deg.].