mhurhangee/patent-ind-claim-en huggingface dataset:
A method for enhancing support of grid reconstruction following a blackout, comprising: providing a power plant including a plurality of generators (GT1A-GT1C); receiving grid specified plant load expectations ; characterized by providing an operational model for each of the plurality of generators within the plant, the model providing at least load step capabilities for each of the plurality of generators; analyzing the modeled capabilities of each of the plurality of generators; and providing an enhanced sequence of load step instructions for each of the plurality of generators to respond to the grid specified plant load expectations, wherein providing an enhanced sequence of load step instructions comprises solving at least one of mixed integer optimization representations of generator characteristics and a sequence of continuous variable representations of generator characteristics, and analyzing comprises solving the selected representation using one of a deterministic or stochastic solution. providing a power plant including a plurality of generators (GT1A-GT1C); receiving grid specified plant load expectations ; characterized by providing an operational model for each of the plurality of generators within the plant, the model providing at least load step capabilities for each of the plurality of generators; analyzing the modeled capabilities of each of the plurality of generators; and providing an enhanced sequence of load step instructions for each of the plurality of generators to respond to the grid specified plant load expectations, wherein providing an enhanced sequence of load step instructions comprises solving at least one of mixed integer optimization representations of generator characteristics and a sequence of continuous variable representations of generator characteristics, and analyzing comprises solving the selected representation using one of a deterministic or stochastic solution.
An ultraviolet radiation device comprising: a UV-C radiation source configured to emit UV-C radiation, the UV-C radiation source comprising a plurality of UV-C emitting devices; and a room partition selectably configurable between two or more different partition geometries and configured, in each of the two or more different partition geometries, to (a) physically separate floor space of a room into a target area and a non-target area, and (b) direct the UV-C radiation to the target area from at least two different directions while shielding the non-target area from the UV-C radiation; characterised by an electronic control system including at least one computer processor configured to execute computer-readable instructions to perform at least one UV-C illumination operation, wherein the at least one computer processor is configured to selectively control the plurality of UV-C emitting devices (1060 a -t) dependent upon which of a plurality of shapes the partition is configured to have, and wherein the at least one computer processor is configured to power on a subset of the plurality of UV-C emitting devices while one or more of the plurality of UV-C emitting devices is powered off. a UV-C radiation source configured to emit UV-C radiation, the UV-C radiation source comprising a plurality of UV-C emitting devices; and a room partition selectably configurable between two or more different partition geometries and configured, in each of the two or more different partition geometries, to (a) physically separate floor space of a room into a target area and a non-target area, and (b) direct the UV-C radiation to the target area from at least two different directions while shielding the non-target area from the UV-C radiation; characterised by an electronic control system including at least one computer processor configured to execute computer-readable instructions to perform at least one UV-C illumination operation, wherein the at least one computer processor is configured to selectively control the plurality of UV-C emitting devices (1060 a -t) dependent upon which of a plurality of shapes the partition is configured to have, and wherein the at least one computer processor is configured to power on a subset of the plurality of UV-C emitting devices while one or more of the plurality of UV-C emitting devices is powered off.
A hybrid heating system, which includes o a primary circuit of a primary heat generator, comprising in parallel a service water heat exchanger and a heating circulation heat exchanger to be heated with the primary heat, o a heating circuit circulating circulation water in a controllable manner at the points of consumption via said heating circulation heat exchanger heated with the primary heat, o heat-pump units (HP1, HP2, HP3) connected, each comprising a compressor , an expansion valve , an evaporator and a condenser , and connected so as to utilize in series the exhaust-air heat recovery by means of their evaporators ), wherein said heat source comprises at least one exhaust-air heat exchanger , characterized in that said heat-pump units (HP1, HP2, HP3) are connected thermodynamically in series, and all units together connected so as to utilize in series the exhaust-air heat recovery by means of their evaporators and so as to emit a secondary heat in series by means of their condensers as a unit in parallel with said heating circulation heat exchanger , and the exhaust-air heat recovery unit consists of a plurality of exhaust-air heat recovery elements connected in series, wherein the medium circulations on both sides are connected in series and together are connected to a counter-flow so that a recurring rise in temperature of the medium and a recurring cooling of the exhaust air are realized. o a primary circuit of a primary heat generator, comprising in parallel a service water heat exchanger and a heating circulation heat exchanger to be heated with the primary heat, o a heating circuit circulating circulation water in a controllable manner at the points of consumption via said heating circulation heat exchanger heated with the primary heat, o heat-pump units (HP1, HP2, HP3) connected, each comprising a compressor , an expansion valve , an evaporator and a condenser , and connected so as to utilize in series the exhaust-air heat recovery by means of their evaporators ), wherein said heat source comprises at least one exhaust-air heat exchanger , characterized in that said heat-pump units (HP1, HP2, HP3) are connected thermodynamically in series, and all units together connected so as to utilize in series the exhaust-air heat recovery by means of their evaporators and so as to emit a secondary heat in series by means of their condensers as a unit in parallel with said heating circulation heat exchanger , and the exhaust-air heat recovery unit consists of a plurality of exhaust-air heat recovery elements connected in series, wherein the medium circulations on both sides are connected in series and together are connected to a counter-flow so that a recurring rise in temperature of the medium and a recurring cooling of the exhaust air are realized.
A robot comprising: a housing including a plurality of joints; a reduction gear placed in one of the joints, the reduction gear housing a gear mechanism for slowing down and transmitting an output of a motor, the reduction gear including a lubrication chamber sealed to hold lubricant; an air chamber placed inside the housing, the air chamber communicating with the lubrication chamber ; a base ; and an arm configured to turn around the axis of rotation of the reduction gear with respect to the base , wherein the reduction gear is placed in the joint between the base and the arm ; characterized in that the air chamber is placed inside the base . a housing including a plurality of joints; a reduction gear placed in one of the joints, the reduction gear housing a gear mechanism for slowing down and transmitting an output of a motor, the reduction gear including a lubrication chamber sealed to hold lubricant; an air chamber placed inside the housing, the air chamber communicating with the lubrication chamber ; a base ; and an arm configured to turn around the axis of rotation of the reduction gear with respect to the base , wherein the reduction gear is placed in the joint between the base and the arm ; characterized in that the air chamber is placed inside the base .
A tandem rotor disk apparatus comprising: a first rotor disk body concentric about an axis (A-A'); a second rotor disk body directly coupled to the first rotor disk body and concentric about the axis; a first blade extending radially outward of the first rotor disk body; and a second blade extending radially outward of the second rotor disk body; wherein the first rotor disk body and the first blade are offset from the second rotor disk body and the second blade in a direction parallel to the axis, characterized in that the first rotor disk body is coupled to the second rotor disk body via one or more tie rods . a first rotor disk body concentric about an axis (A-A'); a second rotor disk body directly coupled to the first rotor disk body and concentric about the axis; a first blade extending radially outward of the first rotor disk body; and a second blade extending radially outward of the second rotor disk body; wherein the first rotor disk body and the first blade are offset from the second rotor disk body and the second blade in a direction parallel to the axis, characterized in that the first rotor disk body is coupled to the second rotor disk body via one or more tie rods .
Downhole apparatus for location in a fluid-filled bore, the apparatus comprising a tubular body comprising a plurality of cylindrical chambers for containing a compressible substance, pistons mounted in the cylindrical chambers , and a lock arrangement having a locking configuration for retaining the pistons in the cylindrical chambers and an unlocked configuration in which bore fluid pressure translates the pistons through the cylindrical chambers , wherein the lock arrangement comprises a switch coupled to a receiver configured to receive a signal to initiate the process of changing the lock arrangement from the locked configuration to the unlocked configuration.
An air compressor, which comprises a box and a compressor unit installed in the box , wherein the box is provided with a connection socket defining a recessed space which vertically and horizontally opens onto ambient environment of the box , and the compressor unit has an air outlet exposed to the connection socket of the box , the recessed space of the connection socket being substantially U-shaped in horizontal cross section and being defined by two opposite sides and a bottom surface between the two opposite sides ; wherein each side of the recessed space of the connection socket defines a groove extending generally towards the outlet of the compressor unit, and defines an engagement recess below the groove , and the groove of each side of the recessed space of the connection socket is defined by a delimiting strip which forms as a top of the corresponding side of the recessed space of the connection socket ; the box defines a receiving space at its back; the air compressor further comprises an external device firmly and detachably assembled onto the connection socket of the box , the external device being connected between the outlet of the compressor unit and an air nozzle of a tire for inflating or repairing the tire; wherein the external device is a sealant bottle which includes a container body and a cap for sealing an opening of the container body , the cap having an inlet connector and an outlet connector , both of which communicate with an inner space of the container body , the cap being provided with two opposite guiding means, each of which is composed of two parallel, spaced projections including a first projection and a second projection , wherein a channel is defined between the two projections of each guiding means; whereby the sealant bottle is inverted to be firmly assembled onto the connection socket of the box , wherein the delimiting strips of the connection socket are inserted into the channels between the projections of the cap , the second projections of the cap are inserted into the grooves of the connection socket ; characterized in that each delimiting strip is further provided with an engagement block thereon; and the box further defines a passage under the recessed space of the connection socket , the passage communicating with the recessed space of the connection socket and the receiving space ; wherein the inlet connector of the cap is connected to the inlet of the compressor unit by using a hose therebetween, and rear edges of the first projection of the cap are engaged with the engagement blocks provided on the delimiting strips of the connection socket of the box .
A dealing shoe comprising: - a shoe body configured to receive plurality of playing cards, wherein the shoe body comprises a base plate , three walls extending from the base plate and a front panel , through which the playing cards received in the shoe body are dealt out, and the base plate comprises a lip extending outside the shoe body in the front of the front panel of the shoe body , - a pusher arranged within the shoe body , wherein the pusher comprises a pusher wheel rotatably connected to the pusher , - a shoe base arranged below the shoe body and the shoe base comprises a set of magnets , characterized in that the front panel in relation to the base plate is inclined at an angle of 34 to 38 degrees, preferably 36 degrees, and in that the face of the pusher in relation to the base plate of the shoe body is inclined at an angle of 39 to 41 degrees, preferably 40 degrees, and in that the lip comprises a lip hole and a thumb areas are made on each side of the lip in the form of rounded sides. - a shoe body configured to receive plurality of playing cards, wherein the shoe body comprises a base plate , three walls extending from the base plate and a front panel , through which the playing cards received in the shoe body are dealt out, and the base plate comprises a lip extending outside the shoe body in the front of the front panel of the shoe body , - a pusher arranged within the shoe body , wherein the pusher comprises a pusher wheel rotatably connected to the pusher , - a shoe base arranged below the shoe body and the shoe base comprises a set of magnets ,
An oligonucleotide capable of inducing type I IFN production for use in inducing apoptosis of tumor cells through binding to RIG-I in the treatment of melanoma in a vertebrate animal, wherein the oligonucleotide comprises at least 1, preferably at least 3, more preferably at least 6 ribonucleotide(s) at the 5' end, a triphosphate group at the 5' end, and wherein the triphosphate group is free of any cap or modification, and wherein the oligonucleotide is at least 21 nucleotides in length, and wherein the oligonucleotide is a ligand of RIG-I. wherein the oligonucleotide comprises at least 1, preferably at least 3, more preferably at least 6 ribonucleotide(s) at the 5' end, a triphosphate group at the 5' end, and wherein the triphosphate group is free of any cap or modification, and wherein the oligonucleotide is at least 21 nucleotides in length, and wherein the oligonucleotide is a ligand of RIG-I.
An inductively heatable aerosol-generating article for use with an inductively heating aerosol-generating device , wherein the article comprises at least one aerosol-forming substrate and at least one susceptor in thermal proximity with the aerosol-forming substrate or thermal contact to the aerosol-forming substrate , wherein the susceptor comprises a flattened expanded metal sheet comprising a plurality of openings through the sheet .
An oral device comprising: a mouthpiece (110, 105 and 130) for insertion into a mouth, said mouthpiece having a vestibular portion, an oral cavity portion, an upper portion (120, 121 and 122) and a lower portion, wherein said upper portion is configured to hold upper teeth of said mouth and said lower portion is configured to hold lower teeth of said mouth, and wherein the vestibular portion comprises an outer portion of the mouthpiece that faces cheeks and lips when the mouthpiece is inserted into the mouth, and wherein the vestibular portion comprises a top vestibular portion of the mouthpiece and a bottom vestibular portion of the mouthpiece; a gas inlet conduit (140, 152 and 164) adjacent to and extending along a first side of said top vestibular portion of said mouthpiece, wherein said gas inlet conduit has a first opening outside said mouth and a second opening inside said mouth and is configured to allow gas to flow between said first opening and said second opening; a gas outlet conduit adjacent to and extending along a second side of said top vestibular portion of said mouthpiece, wherein said gas outlet conduit has a first opening outside said mouth and a second opening inside said mouth and is configured to allow gas to flow between said second opening and said first opening; and, a fluid outlet conduit adjacent to said bottom vestibular portion of said mouthpiece, wherein said fluid outlet conduit has a first opening outside said mouth and a second opening inside said mouth and is configured to allow fluid to flow between said second opening and said first opening. a mouthpiece (110, 105 and 130) for insertion into a mouth, said mouthpiece having a vestibular portion, an oral cavity portion, an upper portion (120, 121 and 122) and a lower portion, wherein said upper portion is configured to hold upper teeth of said mouth and said lower portion is configured to hold lower teeth of said mouth, and wherein the vestibular portion comprises an outer portion of the mouthpiece that faces cheeks and lips when the mouthpiece is inserted into the mouth, and wherein the vestibular portion comprises a top vestibular portion of the mouthpiece and a bottom vestibular portion of the mouthpiece; a gas inlet conduit (140, 152 and 164) adjacent to and extending along a first side of said top vestibular portion of said mouthpiece, wherein said gas inlet conduit has a first opening outside said mouth and a second opening inside said mouth and is configured to allow gas to flow between said first opening and said second opening; a gas outlet conduit adjacent to and extending along a second side of said top vestibular portion of said mouthpiece, wherein said gas outlet conduit has a first opening outside said mouth and a second opening inside said mouth and is configured to allow gas to flow between said second opening and said first opening; and, a fluid outlet conduit adjacent to said bottom vestibular portion of said mouthpiece, wherein said fluid outlet conduit has a first opening outside said mouth and a second opening inside said mouth and is configured to allow fluid to flow between said second opening and said first opening.
A method of IQ mismatch correction for frequency modulation continuous wave (FMCW) radar, comprising: providing an IQ FMCW receiver including an in-phase (I) channel comprising a first mixer coupled to receive and mix a chirped local oscillator signal chirped LO signal , and a received scattered chirped radar signal, chirped radar signal, and a first analog-to-digital A/D converter for outputting in-phase (I)-data, and a quadrature (Q) channel including a phase shifter for phase shifting the chirped LO signal to provide a phase shifted chirped LO signal, a second mixer coupled to receive and mix the chirped radar signal and the phase shifted chirped LO signal and a second A/D converter for outputting Q phase (Q)-data; dynamically generating IQ phase correction parameter values P[n]s and IQ gain correction parameter values G[n]s based on a slope rate of a frequency of the chirped LO signal including generating different values during a plurality of intervals for each chirp of the chirped LO signal ; coupling the P[n]s and the G[n]s to an IQ mismatch IQMM correction circuit having a first IQMM input coupled to receive the I-data from the I channel and a second IQMM input for receiving the Q-data from the Q-channel, wherein the IQMM correction circuit provides corrected Q (Q') data and corrected I (I') data. providing an IQ FMCW receiver including an in-phase (I) channel comprising a first mixer coupled to receive and mix a chirped local oscillator signal chirped LO signal , and a received scattered chirped radar signal, chirped radar signal, and a first analog-to-digital A/D converter for outputting in-phase (I)-data, and a quadrature (Q) channel including a phase shifter for phase shifting the chirped LO signal to provide a phase shifted chirped LO signal, a second mixer coupled to receive and mix the chirped radar signal and the phase shifted chirped LO signal and a second A/D converter for outputting Q phase (Q)-data; dynamically generating IQ phase correction parameter values P[n]s and IQ gain correction parameter values G[n]s based on a slope rate of a frequency of the chirped LO signal including generating different values during a plurality of intervals for each chirp of the chirped LO signal ; coupling the P[n]s and the G[n]s to an IQ mismatch IQMM correction circuit having a first IQMM input coupled to receive the I-data from the I channel and a second IQMM input for receiving the Q-data from the Q-channel, wherein the IQMM correction circuit provides corrected Q (Q') data and corrected I (I') data.
A refrigerator comprising: an inner casing in which a storage space is formed; an outer casing coupled to the inner casing to define an appearance of the refrigerator; an insulator filling a space between the inner casing and the outer casing ; and partitions that divide the storage space into a plurality of storage chambers , wherein the partitions include a first partition horizontally coupled to a plurality of side walls and a rear wall of the inner casing to divide the storage space into an upper storage chamber and a lower storage chamber , and a second partition vertically coupled to a bottom surface of the first partition and a bottom wall of the inner casing to divide the lower storage chamber into a left chamber and a right chamber , wherein the insulator fills at least a portion of the first partition while filling the space between the inner casing and the outer casing , characterized in that the second partition communicates with the first partition so that the insulator fills the second partition , and the first partition includes a prefabricated insulator assembled therein, wherein the prefabricated insulator is formed with a guide path that guides the insulator filling the first partition to fill the second partition . an inner casing in which a storage space is formed; an outer casing coupled to the inner casing to define an appearance of the refrigerator; an insulator filling a space between the inner casing and the outer casing ; and partitions that divide the storage space into a plurality of storage chambers , wherein the partitions include a first partition horizontally coupled to a plurality of side walls and a rear wall of the inner casing to divide the storage space into an upper storage chamber and a lower storage chamber , and a second partition vertically coupled to a bottom surface of the first partition and a bottom wall of the inner casing to divide the lower storage chamber into a left chamber and a right chamber , wherein the insulator fills at least a portion of the first partition while filling the space between the inner casing and the outer casing , characterized in that the second partition communicates with the first partition so that the insulator fills the second partition , and the first partition includes a prefabricated insulator assembled therein, wherein the prefabricated insulator is formed with a guide path that guides the insulator filling the first partition to fill the second partition .