mhurhangee/ep-ind-claims huggingface dataset:
A device (400; 600; 700; 800) for converting thermal power into electric power, comprising a plurality of conversion cells arranged inside and on top of a first substrate, each cell comprising: a curved bimetal strip comprising two superposed layers of distinct metals having different thermal expansion coefficients and adapted to change its shape when the temperature varies; first and second diodes coupled to said strip, arranged in a first semiconductor region of the first substrate; and a first capacitive electret transducer having a first electrode formed by said strip, wherein said strip is located in front of a second semiconductor region (401c; 801) forming a second electrode of the transducer, each cell comprising an electret layer (405; 803) between said strip and the second semiconductor region. a curved bimetal strip comprising two superposed layers of distinct metals having different thermal expansion coefficients and adapted to change its shape when the temperature varies; first and second diodes coupled to said strip, arranged in a first semiconductor region of the first substrate; and a first capacitive electret transducer having a first electrode formed by said strip, wherein said strip is located in front of a second semiconductor region (401c; 801) forming a second electrode of the transducer, each cell comprising an electret layer (405; 803) between said strip and the second semiconductor region.
A field-effect transistor comprising: a substrate; a passivation layer; a gate insulating layer formed between the substrate and the passivation layer; a source electrode and a drain electrode; a semiconductor layer, which is formed at least between the source electrode and the drain electrode and is in contact with the gate insulating layer, the source electrode, and the drain electrode; and a gate electrode, which is in contact with the gate insulating layer and faces the semiconductor layer via the gate insulating layer, wherein the passivation layer comprises a first complex oxide comprising an alkaline earth metal and a rare-earth element, and wherein the gate insulating layer comprises a second complex oxide comprising an alkaline earth metal and a rare-earth element, wherein the first complex oxide comprises at least one of Zr and Hf, wherein the second complex oxide comprises at least one of Zr and Hf. a substrate; a passivation layer; a gate insulating layer formed between the substrate and the passivation layer; a source electrode and a drain electrode; a semiconductor layer, which is formed at least between the source electrode and the drain electrode and is in contact with the gate insulating layer, the source electrode, and the drain electrode; and a gate electrode, which is in contact with the gate insulating layer and faces the semiconductor layer via the gate insulating layer, wherein the passivation layer comprises a first complex oxide comprising an alkaline earth metal and a rare-earth element, and wherein the gate insulating layer comprises a second complex oxide comprising an alkaline earth metal and a rare-earth element, wherein the first complex oxide comprises at least one of Zr and Hf, wherein the second complex oxide comprises at least one of Zr and Hf.
An FCC catalyst composition comprising a particulate, said particulate comprising a matrix and non-rare earth metal exchanged Y-zeolite and ZSM-5 zeolite, wherein said catalyst composition comprises particles in which said Y-zeolite and ZSM-5 are present in the same particle, wherein the non-rare earth metal exchanged Y-zeolite is in an amount in the range of 5 to 15 wt%, based upon the weight of the particulate, and the ZSM-5 is in an amount in the range of 10 to 35 wt%, based upon the weight of the particulate and wherein the non-rare earth metal exchanged Y-zeolite and the ZSM-5 zeolite are in a weight ratio in the range of 0.16 to 1.0 weight Y-zeolite to ZSM-5 zeolite, wherein the non-rare earth metal is magnesium, calcium, or strontium and wherein the rare earth metal content is less than 0.15 wt%. wherein said catalyst composition comprises particles in which said Y-zeolite and ZSM-5 are present in the same particle, wherein the non-rare earth metal exchanged Y-zeolite is in an amount in the range of 5 to 15 wt%, based upon the weight of the particulate, and the ZSM-5 is in an amount in the range of 10 to 35 wt%, based upon the weight of the particulate and wherein the non-rare earth metal exchanged Y-zeolite and the ZSM-5 zeolite are in a weight ratio in the range of 0.16 to 1.0 weight Y-zeolite to ZSM-5 zeolite, wherein the non-rare earth metal is magnesium, calcium, or strontium and wherein the rare earth metal content is less than 0.15 wt%.
A variable-speed power generator (1,1') comprising a prime mover that generates motive power by using natural energy; a wound-rotor induction generator that includes a stator having a primary winding and a rotor having a secondary winding, the stator and the rotor being connected to a power grid, and that generates electric power based on the motive power generated by the prime mover; and a power converter that is connected to the stator and the rotor and that is connected to the power grid to output the electric power, wherein the power converter does not supply reactive power to the power grid, and wherein the variable-speed power generator (1,1') includes a controller (21, 21') that causes the wound-rotor induction generator to operate at a rated rotation speed set to be higher than or equal to a synchronous speed and increases reactive power supplied to the power grid when a reactive-power supply instruction for supplying reactive power to the power grid is obtained from the power grid.
A genetically modified mouse comprising a B cell that expresses a human light chain variable (V L) domain derived from a rearranged human Vκ39/Jκ5 sequence that is present in the germline of the mouse, wherein the mouse lacks an unrearranged endogenous immunoglobulin Vκ gene segment and an unrearranged endogenous immunoglobulin Jκ gene segment; and wherein the human V L domain(s) is associated with a human heavy chain variable (V H) domain derived from a rearranged human V H /D H /J H region selected from 2-5/3-22/1, 3-13/6-6/5, 3-23/2-8/4, 3-23/6-6/4, 3-23/7-27/4, 3-30/1-1/4, 3-30/3-3/4, 3-30/5-5/2, 3-30/7-27/6, 1-69/6-6/5 or 1-69/6-13/4.
A printer (301; 401; 501; 600; 900; 1000; 1100) comprising: a printing mechanism (604, 606, 608, 613; 1002, 1006, 1010; 1102) configured to print images onto print media; and a print verification device (322; 405; 506; 632; 1004; 1104, 1106; 1200) configured to monitor the print quality of the images printed onto the print media; wherein the print verification device (322; 405; 506; 632; 1004; 1104, 1106; 1200) is configured to analyze the print quality to determine if the print quality meets predetermined quality standards; and wherein, when the print verification device (322; 405; 506; 632; 1004; 1104, 1106; 1200) determines that the print quality of the analyzed print media does not meet the predetermined quality standards, the print verification device (322; 405; 506; 632; 1004; 1104, 1106; 1200) is configured to instruct the printing mechanism (604, 606, 608, 613; 1002, 1006, 1010; 1102) to print diagnostic information comprising maintenance instructions onto the analyzed print media before printing images onto a next print media, the maintenance instructions defining at least one user action needed to improve or correct the print quality. a printing mechanism (604, 606, 608, 613; 1002, 1006, 1010; 1102) configured to print images onto print media; and a print verification device (322; 405; 506; 632; 1004; 1104, 1106; 1200) configured to monitor the print quality of the images printed onto the print media; wherein the print verification device (322; 405; 506; 632; 1004; 1104, 1106; 1200) is configured to analyze the print quality to determine if the print quality meets predetermined quality standards; and wherein, when the print verification device (322; 405; 506; 632; 1004; 1104, 1106; 1200) determines that the print quality of the analyzed print media does not meet the predetermined quality standards, the print verification device (322; 405; 506; 632; 1004; 1104, 1106; 1200) is configured to instruct the printing mechanism (604, 606, 608, 613; 1002, 1006, 1010; 1102) to print diagnostic information comprising maintenance instructions onto the analyzed print media before printing images onto a next print media, the maintenance instructions defining at least one user action needed to improve or correct the print quality.
A cooling system comprising: a heat absorbing device which has a first pipe port and absorbs heat discharged from equipment by using refrigerant; a radiator which has a second pipe port placed higher than the first pipe port and cools the refrigerant; characterized by a first flexible pipe whose one end is connected with the first pipe port and whose another end is connected with the second pipe port and through which the refrigerant flows and which can bend freely; and a loading table having a surface which becomes higher in a vertical direction as approaching from one end of the surface to another end, and on which the first flexible pipe is placed so as to become higher in the vertical direction as approaching from a side of the first flexible pipe, which is connected with the first pipe port, to a side of the first flexible pipe which is connected with the second pipe port. a heat absorbing device which has a first pipe port and absorbs heat discharged from equipment by using refrigerant; a radiator which has a second pipe port placed higher than the first pipe port and cools the refrigerant; characterized by a first flexible pipe whose one end is connected with the first pipe port and whose another end is connected with the second pipe port and through which the refrigerant flows and which can bend freely; and a loading table having a surface which becomes higher in a vertical direction as approaching from one end of the surface to another end, and on which the first flexible pipe is placed so as to become higher in the vertical direction as approaching from a side of the first flexible pipe, which is connected with the first pipe port, to a side of the first flexible pipe which is connected with the second pipe port.
Child seat system comprising at least one first seat element, a second seat element and a base mountable on a vehicle seat, wherein the first and/or the second seat element (11a, 11b) is adjustable relative to the base or a base element of the base, in particular is rotatable from a first orientation to a second orientation different from the first orientation, wherein a manual actuation means for a locking means (18a, 18b) for releasing and/or blocking said adjustment, in particular said rotation, is accessible when said second seat element is mounted on said base, but is not accessible when said first seat element is mounted on said base.
A security key change method, comprising: receiving, by user equipment, UE, a key change command message from a master eNodeB, MeNB, wherein the key change command message comprises indication information that a security key change be performed between the UE and a secondary eNodeB, SeNB, wherein the UE is configured with a dual connectivity between the MeNB and the SeNB; performing, by the UE according to the key change command message, the security key change between the UE and the SeNB; determining, by the UE according to the key change command message, whether to keep access stratum configuration information between the UE and the SeNB; and sending, by the UE, a key change complete message to the MeNB; wherein the access stratum configuration information between the UE and the SeNB comprises at least one of the following: Packet Data Convergence Protocol, PDCP, configuration information between the UE and the SeNB; Radio Link Control, RLC, configuration information between the UE and the SeNB; Medium Access Control, MAC configuration information between the UE and the SeNB; an active state of an activated secondary cell, SCell, between the UE and the SeNB; a cell radio network temporary identifier, C-RNTI, used for communication between the UE and the SeNB. receiving, by user equipment, UE, a key change command message from a master eNodeB, MeNB, wherein the key change command message comprises indication information that a security key change be performed between the UE and a secondary eNodeB, SeNB, wherein the UE is configured with a dual connectivity between the MeNB and the SeNB; performing, by the UE according to the key change command message, the security key change between the UE and the SeNB; determining, by the UE according to the key change command message, whether to keep access stratum configuration information between the UE and the SeNB; and sending, by the UE, a key change complete message to the MeNB; wherein the access stratum configuration information between the UE and the SeNB comprises at least one of the following: Packet Data Convergence Protocol, PDCP, configuration information between the UE and the SeNB; Radio Link Control, RLC, configuration information between the UE and the SeNB; Medium Access Control, MAC configuration information between the UE and the SeNB; an active state of an activated secondary cell, SCell, between the UE and the SeNB; a cell radio network temporary identifier, C-RNTI, used for communication between the UE and the SeNB. Packet Data Convergence Protocol, PDCP, configuration information between the UE and the SeNB; Radio Link Control, RLC, configuration information between the UE and the SeNB; Medium Access Control, MAC configuration information between the UE and the SeNB; an active state of an activated secondary cell, SCell, between the UE and the SeNB; a cell radio network temporary identifier, C-RNTI, used for communication between the UE and the SeNB.
A wireless transceiver system, comprising: a master unit; a plurality of coverage antennas (102, 702a-702l) in communication with the master unit; and a plurality of sensors (10, 12, 14, 32a-32l), characterized by a location capture processing unit, wherein the plurality of sensors (10, 12, 14, 32a-32l) are each coupled to a respective coverage antenna (102, 702a-702l) and are each in communication with the location capture processing unit; wherein each sensor of the plurality of sensors (10, 12, 14, 32a-32l) includes: a controller; an RF receiver configured to receive RF signals from mobile devices, the RF receiver being in communication with the controller; and a localization engine configured to receive beacon signals, the localization engine being in communication with the controller; wherein the controller is configured to determine position information for its respective sensor using at least one of the RF signals from the RF receiver and the beacon signals from the localization engine, and wherein the sensors of the plurality of sensors (10, 12, 14, 32a-32l) are operable for communicating position information to the location capture processing unit. a master unit; a plurality of coverage antennas (102, 702a-702l) in communication with the master unit; and a plurality of sensors (10, 12, 14, 32a-32l), characterized by a location capture processing unit, wherein the plurality of sensors (10, 12, 14, 32a-32l) are each coupled to a respective coverage antenna (102, 702a-702l) and are each in communication with the location capture processing unit; wherein each sensor of the plurality of sensors (10, 12, 14, 32a-32l) includes: a controller; an RF receiver configured to receive RF signals from mobile devices, the RF receiver being in communication with the controller; and a localization engine configured to receive beacon signals, the localization engine being in communication with the controller; wherein the controller is configured to determine position information for its respective sensor using at least one of the RF signals from the RF receiver and the beacon signals from the localization engine, and wherein the sensors of the plurality of sensors (10, 12, 14, 32a-32l) are operable for communicating position information to the location capture processing unit. a controller; an RF receiver configured to receive RF signals from mobile devices, the RF receiver being in communication with the controller; and a localization engine configured to receive beacon signals, the localization engine being in communication with the controller; wherein the controller is configured to determine position information for its respective sensor using at least one of the RF signals from the RF receiver and the beacon signals from the localization engine, and wherein the sensors of the plurality of sensors (10, 12, 14, 32a-32l) are operable for communicating position information to the location capture processing unit.
Signalling light for a motor vehicle, comprising at least one light source of the LED or other type, said device comprising an optical assembly of at least one first reflector consisting of a mirror and of at least one second reflector consisting of a semi-transparent mirror characterised in that said device comprises a curtain diffuser made of a transparent material in which a light emitted by at least one LED (3, 5) is diffused (3, 5), the mirror, the semi-transparent mirror 2) and the curtain having their planes or their mid-planes substantially mutually parallel, with the light transmitted and/or reflected by said optical assembly being transmitted and visible by the observer through the opposite face of said second reflector from that turned towards the other elements of said optical assembly, and said curtain diffuser forming a lighting sub-assembly located in the space between the mirror and the semi-transparent mirror, and substantially consisting of a transparent optical material and of at least one light source of the LED type arranged to emit light rays propagating inside the thickness of said transparent optical material.
A pulse-width-modulation driver circuit, comprising: a first driver pair comprising first and second transistors (50PH, 50 PL) having conduction paths connected in series between a power supply voltage (V M) and a ground voltage, each of the first and second transistors (50PH, 50 PL) having a control terminal; pulse-width-modulation circuitry, for generating a first pulse-width-modulated signal responsive to a comparison of an error signal with a ramp clock signal; a first pulse-width-modulation driver, having an input coupled to receive the first pulse-width modulated signal and having outputs coupled to the control terminals of the first and second transistors (50PH, 50 PL); and a ramp clock generator, for generating a ramp clock signal (RMP, RAMP) that varies periodically between a high limit and a low limit, the ramp clock generator comprising circuitry for changing the high and low limits (VH, VL) responsive to variations in the power supply voltage (V M). a first driver pair comprising first and second transistors (50PH, 50 PL) having conduction paths connected in series between a power supply voltage (V M) and a ground voltage, each of the first and second transistors (50PH, 50 PL) having a control terminal; pulse-width-modulation circuitry, for generating a first pulse-width-modulated signal responsive to a comparison of an error signal with a ramp clock signal; a first pulse-width-modulation driver, having an input coupled to receive the first pulse-width modulated signal and having outputs coupled to the control terminals of the first and second transistors (50PH, 50 PL); and a ramp clock generator, for generating a ramp clock signal (RMP, RAMP) that varies periodically between a high limit and a low limit, the ramp clock generator comprising circuitry for changing the high and low limits (VH, VL) responsive to variations in the power supply voltage (V M).
A complex amine absorbent for absorbing one or both of CO 2 and H 2 S in a gas, the complex amine absorbent comprising 1) monoethanolamine, and 2) at least one primary amine having high steric hindrance selected from the group consisting of: 2-amino-1-propanol (2A1P), 2-amino-3-methyl-1-butanol, 1-amino-2-propanol, 1-amino-2-butanol (1A2B), 2-amino-2-methyl-1-propanol, 2-amino-1-butanol (2A1B), with the monoethanolamine and the primary amine being dissolved in water, 3) at least one polyamine selected from the group consisting in: ethylenediamine, N,N'-dimethylethylenediamine, N,N'-diethylethylenediamine,, and N,N'-dimethylpropanediamine, or at least one of piperazine, 1-methylpiperazine, 2-methylpiperazine, 2,5-dimethylpiperazine, 1-(2-aminoethyl)piperazine, and 1-(2-hydroxyethyl)piperazine; wherein: i)- a total concentration of the amines in the complex amine adsorbent is from 30% to 70% by weight; and ii)- a weight ratio of the said primary amine in relation to MEA is within a range of 0.3 to 2.5. 1) monoethanolamine, and 2) at least one primary amine having high steric hindrance selected from the group consisting of: 2-amino-1-propanol (2A1P), 2-amino-3-methyl-1-butanol, 1-amino-2-propanol, 1-amino-2-butanol (1A2B), 2-amino-2-methyl-1-propanol, 2-amino-1-butanol (2A1B), with the monoethanolamine and the primary amine being dissolved in water, 3) at least one polyamine selected from the group consisting in: ethylenediamine, N,N'-dimethylethylenediamine, N,N'-diethylethylenediamine,, and N,N'-dimethylpropanediamine, or at least one of piperazine, 1-methylpiperazine, 2-methylpiperazine, 2,5-dimethylpiperazine, 1-(2-aminoethyl)piperazine, and 1-(2-hydroxyethyl)piperazine; wherein: i)- a total concentration of the amines in the complex amine adsorbent is from 30% to 70% by weight; and ii)- a weight ratio of the said primary amine in relation to MEA is within a range of 0.3 to 2.5. i)- a total concentration of the amines in the complex amine adsorbent is from 30% to 70% by weight; and ii)- a weight ratio of the said primary amine in relation to MEA is within a range of 0.3 to 2.5.
A method for setting up a finished part, particularly a prefabricated slab for building a solid roadway, forming a road together with a plurality of finished parts disposed one after the other, having polygon points determining an external geometry of the course of the road, characterized in that the polygon points are selected near the axis of the road, that a measuring device, particularly a tachymeter, is set up at a first polygon point, that the measuring device is oriented with respect to at least one target point (5; 5'), so that an orientation line (6, 6') is thereby established, that a plurality of measurement points of the finished part are subsequently measured in terms of the actual position thereof relative to the orientation line (6, 6') and compared to the specified position, and that the finished part is set up according to the difference between the actual and specified position.