mhurhangee/patent-ind-claim-en huggingface dataset:
An induction heating apparatus , comprising: a working coil disposed in a position corresponding to a position of a heating zone ; an inverter circuit comprising a plurality of switching elements (SW1, SW2) and configured to supply current to the working coil ; a driving circuit configured to supply a switching signal (S1, S2) to each of the switching elements (SW1, SW2) included in the inverter circuit ; and a controller configured: to determine a driving frequency of the working coil , corresponding to a power level of the heating zone , when the power level is input, and to supply a control signal based on the driving frequency to the driving circuit for driving the working coil correspondingly, characterised in that the controller is configured to measure a resonance current value of the working coil , measure a driving voltage value supplied to the plurality of switching elements (SW1, SW2), determine an overlapped period (OT) of the resonance current value and the driving voltage value, compare a time point of appearance of the overlapped period (OT) with a predetermined reference time point (RT) to determine a driving state of the induction heating apparatus, and control driving of the working coil based on the driving state of the induction heating apparatus. a working coil disposed in a position corresponding to a position of a heating zone ; an inverter circuit comprising a plurality of switching elements (SW1, SW2) and configured to supply current to the working coil ; a driving circuit configured to supply a switching signal (S1, S2) to each of the switching elements (SW1, SW2) included in the inverter circuit ; and a controller configured: to determine a driving frequency of the working coil , corresponding to a power level of the heating zone , when the power level is input, and to supply a control signal based on the driving frequency to the driving circuit for driving the working coil correspondingly, to determine a driving frequency of the working coil , corresponding to a power level of the heating zone , when the power level is input, and to supply a control signal based on the driving frequency to the driving circuit for driving the working coil correspondingly, characterised in that the controller is configured to measure a resonance current value of the working coil , measure a driving voltage value supplied to the plurality of switching elements (SW1, SW2), determine an overlapped period (OT) of the resonance current value and the driving voltage value, compare a time point of appearance of the overlapped period (OT) with a predetermined reference time point (RT) to determine a driving state of the induction heating apparatus, and control driving of the working coil based on the driving state of the induction heating apparatus.
A cleaning pad (120; 600;700) comprising: a pad body having opposite broad surfaces, including a cleaning surface (604; 704) and a mounting surface (602; 702; 802A-F); and a mounting plate (206; 606; 706) secured across the mounting surface of the pad body; wherein the mounting plate has a pad type identifier (603; 703; 803A-F) unique to a type of the cleaning pad selected from multiple different types, the identifier being positioned to be sensed by an autonomous robot to which the cleaning pad is mounted, wherein the identifier is defined by a cutout on the mounting plate. a pad body having opposite broad surfaces, including a cleaning surface (604; 704) and a mounting surface (602; 702; 802A-F); and a mounting plate (206; 606; 706) secured across the mounting surface of the pad body; wherein the mounting plate has a pad type identifier (603; 703; 803A-F) unique to a type of the cleaning pad selected from multiple different types, the identifier being positioned to be sensed by an autonomous robot to which the cleaning pad is mounted, wherein the identifier is defined by a cutout on the mounting plate.
Control system for a traffic network , comprising an output interface , which is configured to issue outputs to the traffic network during an operating phase, wherein the outputs can change states of elements of the traffic network , further comprising an input interface , which is configured to receive inputs from the traffic network during the operating phase, wherein the inputs relate to states of elements of the traffic network , characterized in that the control system comprises a knowledge base , which was generated from a rule base during a preparatory phase when not in the operating phase and wherein the data stored in the knowledge base have a data structure comprising a triple of bit switch, characteristic and action. comprising an output interface , which is configured to issue outputs to the traffic network during an operating phase, wherein the outputs can change states of elements of the traffic network , further comprising an input interface , which is configured to receive inputs from the traffic network during the operating phase, wherein the inputs relate to states of elements of the traffic network , characterized in that the control system comprises a knowledge base , which was generated from a rule base during a preparatory phase when not in the operating phase and wherein the data stored in the knowledge base have a data structure comprising a triple of bit switch, characteristic and action.
An isolated peptide consisting of SEQ ID NO: 32, or a fragment thereof comprising at least 13 contiguous amino acids, the peptide or fragment enhances cytotoxicity receptor natural killer protein 44 (NKp44) binding to tumor cells compared to NKp44 binding to tumor cells without said peptide.
A method for the additive manufacturing of a three-dimensional object out of a high-temperature polymer material, the method comprising the steps of - plasticizing a high-temperature polymer material above the melting temperature (T S ) of the high-temperature polymer material, such that a melt of the high-temperature polymer material is generated, - cooling the plasticized high-temperature polymer material to a processing temperature (Tv), which is above a crystallization temperature (T K ) of the high-temperature polymer material and below the melting temperature (Ts) of the high-temperature polymer material, and which is below a permissible maximum temperature value (T L ) of means for additively manufacturing the three-dimensional object of a device for additively manufacturing the three-dimensional object out of the high-temperature polymer material, - conveying the melt of the high-temperature polymer material cooled to the processing temperature (T V ) into the means for additively manufacturing the three-dimensional object , and - additively manufacturing the three-dimensional object out of the plasticized high-temperature polymer material cooled to the processing temperature using the means for additively manufacturing the three-dimensional object . - plasticizing a high-temperature polymer material above the melting temperature (T S ) of the high-temperature polymer material, such that a melt of the high-temperature polymer material is generated, - cooling the plasticized high-temperature polymer material to a processing temperature (Tv), which is above a crystallization temperature (T K ) of the high-temperature polymer material and below the melting temperature (Ts) of the high-temperature polymer material, and which is below a permissible maximum temperature value (T L ) of means for additively manufacturing the three-dimensional object of a device for additively manufacturing the three-dimensional object out of the high-temperature polymer material, - conveying the melt of the high-temperature polymer material cooled to the processing temperature (T V ) into the means for additively manufacturing the three-dimensional object , and - additively manufacturing the three-dimensional object out of the plasticized high-temperature polymer material cooled to the processing temperature using the means for additively manufacturing the three-dimensional object .
An expanded polymer insulation plate, which comprises parallel first and second large surfaces and parallel first and second parallel long side edges and parallel first and second short side edges perpendicular to the long side edges, delimiting the surfaces, and which insulation plate is made of expanded polystyrene, expanded polypropylene or expanded polyethylene polymer beads, wherein the polymer beads and their cells are unbroken and have an elongated shape in the entire insulation plate and the thermal conductivity of the insulation plate perpendicular to the large surfaces is from 0.026 to 0.033 W/K · m, or from 0.027 to 0.030 W/K . m.
A system for storing and transporting in a warehouse at least one object to be stored in a rack of said warehouse, comprising: - at least one container suitable for receiving said object and capable of being housed in said rack; - a motorised trolley comprising climbing means capable of cooperating with said rack to allow said trolley to rise along said rack, said trolley comprising a device for gripping and depositing said container, said gripping and depositing device comprising a carrier mounted so as to be movable relative to the chassis of said trolley between: - a deployed position, wherein said carrier extends at least partially over a side edge of said trolley out of alignment with said chassis; and - a retracted position, in which said carrier is housed opposite said chassis; sais carrier comprising a tray , a frame or a bar, wherein the carrier comprises at least one projecting finger (15 1 ,15 2 ,15 3 ,15 4 ) fixed with respect to said tray, frame or bar, facing upwards, and in that the bottom of said container has at least one fingerprint (21 1 ,21 2 ,21 3 ,21 4 ) configured to accommodate at least a portion of said finger. - at least one container suitable for receiving said object and capable of being housed in said rack; - a motorised trolley comprising climbing means capable of cooperating with said rack to allow said trolley to rise along said rack, said trolley comprising a device for gripping and depositing said container, said gripping and depositing device comprising a carrier mounted so as to be movable relative to the chassis of said trolley between: - a deployed position, wherein said carrier extends at least partially over a side edge of said trolley out of alignment with said chassis; and - a retracted position, in which said carrier is housed opposite said chassis; sais carrier comprising a tray , a frame or a bar, wherein the carrier comprises at least one projecting finger (15 1 ,15 2 ,15 3 ,15 4 ) fixed with respect to said tray, frame or bar, facing upwards, and in that the bottom of said container has at least one fingerprint (21 1 ,21 2 ,21 3 ,21 4 ) configured to accommodate at least a portion of said finger. - a deployed position, wherein said carrier extends at least partially over a side edge of said trolley out of alignment with said chassis; and - a retracted position, in which said carrier is housed opposite said chassis;
A boxer engine with two substantially mirror-symmetric engine sides (L, R) comprising a crankshaft to which is connected, at least two main scotch yoke assemblies each having one main piston arranged inside one main cylinder (I, III; II, IV) of each engine side (R; L), and at least one auxiliary scotch yoke assembly having a pair of auxiliary pistons arranged inside a pair of auxiliary cylinders (V, VII; VI, VIII) of each engine side (R; L), wherein the main scotch yoke assemblies are arranged synchronized on the crankshaft and the auxiliary scotch yoke assembly is arranged 180° offset on the crankshaft , each auxiliary piston defining an outer space and an inner space within each auxiliary cylinder (V, VII; VI, VIII), the inner space facing the opposite engine side (R; L), wherein, said inner spaces of each auxiliary cylinder (V, VII; VI, VIII) pair are in fluid communication and forming a compression chamber, said compression chamber comprises first and second check valves , wherein the auxiliary cylinder (V, VII; VI, VIII) pair is adapted to suck in ambient air through the first check valve and compress and pump said air out through the second check valve into a main cylinder (I, III; II, IV) of the opposite engine side (R; L), and said outer spaces of each auxiliary cylinder (V, VII; VI, VIII) pair are in fluid communication and are receiving pressurized exhaust gas from a main cylinder (I, III; II, IV) of the same engine side (R; L). at least two main scotch yoke assemblies each having one main piston arranged inside one main cylinder (I, III; II, IV) of each engine side (R; L), and at least one auxiliary scotch yoke assembly having a pair of auxiliary pistons arranged inside a pair of auxiliary cylinders (V, VII; VI, VIII) of each engine side (R; L), wherein the main scotch yoke assemblies are arranged synchronized on the crankshaft and the auxiliary scotch yoke assembly is arranged 180° offset on the crankshaft , each auxiliary piston defining an outer space and an inner space within each auxiliary cylinder (V, VII; VI, VIII), the inner space facing the opposite engine side (R; L), wherein, said inner spaces of each auxiliary cylinder (V, VII; VI, VIII) pair are in fluid communication and forming a compression chamber, said compression chamber comprises first and second check valves , wherein the auxiliary cylinder (V, VII; VI, VIII) pair is adapted to suck in ambient air through the first check valve and compress and pump said air out through the second check valve into a main cylinder (I, III; II, IV) of the opposite engine side (R; L), and said outer spaces of each auxiliary cylinder (V, VII; VI, VIII) pair are in fluid communication and are receiving pressurized exhaust gas from a main cylinder (I, III; II, IV) of the same engine side (R; L).
A method of transmitting multi-bit scheduling requests, SRs, from a user equipment, UE , comprising: receiving , at the UE, a radio resource control, RRC, message from a first base station, wherein the RRC message indicates that uplink component carriers, CCs, of the UE (no) are to be assigned to a plurality of uplink CC groups, wherein the plurality of uplink CC groups includes a first uplink CC group and a second uplink CC group; assigning the uplink CCs to the plurality of uplink CC groups; generating , at the UE , a plurality of multi-bit SRs including a multi-bit SR for each group of the plurality of uplink CC groups, wherein the generating includes generating a first multi-bit SR for the first uplink CC group and a second multi-bit SR for the second uplink CC group, wherein a first number of bits of the first multi-bit SR is different from a second number of bits of the second multi-bit SR; mapping each logical channel of a plurality of logical channels at the UE (no) to at least one uplink CC of the plurality of uplink CCs; and transmitting , from the UE , at least one of the plurality of multi-bit SRs generated for a group of the plurality of uplink CC groups to a second base station. receiving , at the UE, a radio resource control, RRC, message from a first base station, wherein the RRC message indicates that uplink component carriers, CCs, of the UE (no) are to be assigned to a plurality of uplink CC groups, wherein the plurality of uplink CC groups includes a first uplink CC group and a second uplink CC group; assigning the uplink CCs to the plurality of uplink CC groups; generating , at the UE , a plurality of multi-bit SRs including a multi-bit SR for each group of the plurality of uplink CC groups, wherein the generating includes generating a first multi-bit SR for the first uplink CC group and a second multi-bit SR for the second uplink CC group, wherein a first number of bits of the first multi-bit SR is different from a second number of bits of the second multi-bit SR; mapping each logical channel of a plurality of logical channels at the UE (no) to at least one uplink CC of the plurality of uplink CCs; and transmitting , from the UE , at least one of the plurality of multi-bit SRs generated for a group of the plurality of uplink CC groups to a second base station.
Polynucleotide encoding a fusion protein, said fusion protein comprising or consisting of the exosome-anchoring protein of sequence SEQ ID NO:1 fused at its C-terminus with an immunogenic antigen, or a DNA expression vector comprising said polynucleotide, for use in preventative or therapeutic vaccination by inducing a CTL immune response, wherein SEQ ID NO:1 is the following sequence: wherein said polynucleotide or DNA expression vector is administered by intramuscular administration.
A hydraulic drive pump adapted for use in a wind turbine , the wind turbine having at least one generator coupled to a generator drive motor and a longitudinal turbine shaft , the longitudinal turbine shaft bearing a plurality of annular cams , each of said annular cams having a cam perimeter bearing a plurality of cam lobes , and radially disposed cylinder means coupled to said annular cams and channeling means , whereby the cylinder means are coupled between each of said plurality of annular cams and said channeling means , characterized in that the hydraulic drive pump comprises: channeling means surrounding and disposed parallel to said longitudinal turbine shaft for channeling pressurized hydraulic fluid between said generator drive motor and said hydraulic drive pump; a toroidal-shaped pressure tank within said hydraulic drive pump coaxial with said longitudinal turbine shaft and coupled between said channeling means and said generator drive motor and adapted to receive pressurized fluid from said channeling means to stabilize said pressure of said hydraulic fluid; and cylinder control means coupled to said cylinder means for selectively engaging said cylinder means with said annular cams to pressurize said hydraulic fluid. channeling means surrounding and disposed parallel to said longitudinal turbine shaft for channeling pressurized hydraulic fluid between said generator drive motor and said hydraulic drive pump; a toroidal-shaped pressure tank within said hydraulic drive pump coaxial with said longitudinal turbine shaft and coupled between said channeling means and said generator drive motor and adapted to receive pressurized fluid from said channeling means to stabilize said pressure of said hydraulic fluid; and cylinder control means coupled to said cylinder means for selectively engaging said cylinder means with said annular cams to pressurize said hydraulic fluid.
A composite material blade for a fan of a turbine engine , the blade comprises a first portion that extends to the root of the blade and that is made of a first material comprising first fiber reinforcement densified by a first matrix, the blade also comprising a second portion that extends to the tip of the blade and that is made of a second material that is different from the first material and that comprises second fiber reinforcement densified by a second matrix, characterized in that the second material possesses abrasion resistance that is less than that of the first material.
A non-aqueous electrolyte secondary battery , comprising: a winding-shaped electrode assembly having a positive electrode and a negative electrode wound with a first separator and a second separator intervening therebetween; and a battery case housing the electrode assembly , wherein the first separator is provided on an outer winding side of the positive electrode , the second separator is provided on an inner winding side of the positive electrode , and characterized in that the first separator has 3.0 N or more and less than 3.9 N of piercing strength, and 185% or more and 260% or less of coefficient of extension in a winding axis direction, and the second separator has 3.9 N or more and 6.0 N or less of piercing strength, and 170% or more and 240% or less of coefficient of extension in the winding axis direction, wherein the piercing strength and the coefficient of extension are measured according to the description, wherein the first separator has a higher coefficient of extension in the winding axis direction (α) than the second separator . a winding-shaped electrode assembly having a positive electrode and a negative electrode wound with a first separator and a second separator intervening therebetween; and a battery case housing the electrode assembly , wherein the first separator is provided on an outer winding side of the positive electrode , the second separator is provided on an inner winding side of the positive electrode , and characterized in that the first separator has 3.0 N or more and less than 3.9 N of piercing strength, and 185% or more and 260% or less of coefficient of extension in a winding axis direction, and the second separator has 3.9 N or more and 6.0 N or less of piercing strength, and 170% or more and 240% or less of coefficient of extension in the winding axis direction, wherein the piercing strength and the coefficient of extension are measured according to the description, wherein the first separator has a higher coefficient of extension in the winding axis direction (α) than the second separator .
An adjunct for use with a staple cartridge , the adjunct comprising: a biocompatible adjunct configured to be releasably retained on a staple cartridge body and configured to be delivered to tissue by deployment of staples in the cartridge body, the adjunct formed as a porous body comprising a first polymer configured to degrade according to a first degradation profile as a function of at least one of hydrolysis in response to interaction with water and heating to a physiological temperature, and a second polymer configured to degrade according to a second degradation profile as a function of at least one of oxidation, enzyme-catalyzed hydrolysis, and change of pH resulting from interaction with at least one physiological element released from the tissue during healing progression of the tissue. a first polymer configured to degrade according to a first degradation profile as a function of at least one of hydrolysis in response to interaction with water and heating to a physiological temperature, and a second polymer configured to degrade according to a second degradation profile as a function of at least one of oxidation, enzyme-catalyzed hydrolysis, and change of pH resulting from interaction with at least one physiological element released from the tissue during healing progression of the tissue.