mhurhangee/ep-ind-claims huggingface dataset:
A method of ensuring that a surgical tool is used safely with a surgical machine, the method comprising: establishing (710, 805,910) a communications connection between the surgical machine and the surgical tool; reading (720,810,920) an identification datum from the surgical tool; based on the identification datum, determining (740,830) if the surgical tool can safely be used with the surgical machine; and illuminating (760,840) an illumination ring (135, 145) located on a face of the surgical machine to indicate that it is safe to use the surgical tool, only if it is safe to do so. establishing (710, 805,910) a communications connection between the surgical machine and the surgical tool; reading (720,810,920) an identification datum from the surgical tool; based on the identification datum, determining (740,830) if the surgical tool can safely be used with the surgical machine; and illuminating (760,840) an illumination ring (135, 145) located on a face of the surgical machine to indicate that it is safe to use the surgical tool, only if it is safe to do so.
The use of a multi-layer, thermal insulation quilt as insulation in the wall or roof of a building, wherein the multi-layer, thermal insulation quilt comprises two spaced apart, outer layers (2, 3) at least one of which is a reflective thermal insulation layer, between which outer layers there is provided at least one inner layer of thermal insulation, characterised in that the outer layers (2, 3) are secured together by an array of non-metallic restraining tags of such length that the tags determine the maximum separation of the outer layers (2, 3) but effect no compressive loading on the or each thermal insulation layer.
A method of separating and analyzing a mixture of oligonucleotides, including performing liquid chromatography using a column packed with a packing material obtained by fixing a diol to a surface of each of porous particles formed of a crosslinked organic polymer, wherein a structure of the diol includes a structure represented by the following formula: R-O-CH 2 -CH -CH 2 where R represents a partial structure of each of the porous particles.
A seating unit (202, 204), wherein said seating unit includes a first seat (206, 210) and an adjacent second seat (208, 212), wherein said seating unit is convertible between a first configuration in which each of said first seat and said second seat is adapted to receive an occupant sitting thereon and a second configuration in which said first seat and said second seat are adapted to collectively support an occupant lying thereon, and wherein access to a space in a back portion behind said first seat is denied when said seating unit is in said first configuration and access to said space is allowed when said seating unit is in said second configuration, characterized in that: said space is of a triangular horizontal cross-section when seen from above, said second seat (208, 212) is forward relative to said first seat (206, 210), and said first seat (206, 210) and said second seat (208, 212) are convertible. wherein said seating unit includes a first seat (206, 210) and an adjacent second seat (208, 212), wherein said seating unit is convertible between a first configuration in which each of said first seat and said second seat is adapted to receive an occupant sitting thereon and a second configuration in which said first seat and said second seat are adapted to collectively support an occupant lying thereon, and wherein access to a space in a back portion behind said first seat is denied when said seating unit is in said first configuration and access to said space is allowed when said seating unit is in said second configuration, characterized in that: said space is of a triangular horizontal cross-section when seen from above, said second seat (208, 212) is forward relative to said first seat (206, 210), and said first seat (206, 210) and said second seat (208, 212) are convertible. said space is of a triangular horizontal cross-section when seen from above, said second seat (208, 212) is forward relative to said first seat (206, 210), and said first seat (206, 210) and said second seat (208, 212) are convertible.
Formwork device for a battery formwork for producing construction elements, in particular precast concrete components, which battery formwork has at least two partition walls, and the formwork device has two formwork panels which can be detachably hingedly interconnected via at least one hinge joint in order to be transferred from an unfolded, lying state into a folded state, wherein each formwork panel has a formwork front side for attaching formwork elements and a formwork rear side, and the formwork rear sides of the two formwork panels face one another in the folded state, and the formwork device is designed to be positioned between the partition walls, wherein each of the formwork panels has at least one first support roller, wherein the first support roller is arranged on the longitudinal side of the formwork panel that is opposite the hinge joint.
Dryer having a receiving member for material to be dried, an air guide for guiding circulating air and/or fresh air to the receiving member, a heating device and at least one sensor (13, 17) for determining relative air humidity and/or temperature, wherein the air guide comprises at least one adjustment element (9, 11) so that the circulating air proportion which is guided to the receiving member can be changed by means of the adjustment element (9, 11), wherein a control and/or regulation device is arranged so that the circulating air proportion which is guided to the receiving member and/or the heating power of the heating device can be controlled or regulated during the drying process, characterised in that during a heating phase a high circulating air proportion and a low fresh air proportion are directed to the receiving member, wherein the circulating air proportion during a drying phase is reduced in accordance with the measured relative exhaust air humidity, wherein during a cooling phase a low circulating air proportion and a high fresh air proportion is directed to the receiving member, wherein the duration of the drying phase and/or the reduction of the circulating air proportion is adapted during the drying phase taking into account at least one external parameter.
A method for emulating induction motor operation using an electronically commutated motor, said method comprising: receiving, at the ECM, a desired operating torque; accessing induction motor operating characteristics stored within the ECM including a breakdown speed of the induction motor being emulated; calculating a demand torque for the ECM as a function of the motor operating speed, the breakdown speed of the induction motor being emulated and a no load speed of the induction motor being emulated if the motor operating speed of the ECM at the desired operating torque is greater than the breakdown speed of the induction motor being emulated; setting the demand torque for the ECM substantially equal to the desired operating torque for the ECM if the motor operating speed of the ECM at the desired operating torque is less than the breakdown speed of the induction motor being emulated; determining if an output torque of the ECM is equal to the demand torque; moving the output torque toward the demand torque if the output torque is not equal to the demand torque; and operating the ECM at the output torque. receiving, at the ECM, a desired operating torque; accessing induction motor operating characteristics stored within the ECM including a breakdown speed of the induction motor being emulated; calculating a demand torque for the ECM as a function of the motor operating speed, the breakdown speed of the induction motor being emulated and a no load speed of the induction motor being emulated if the motor operating speed of the ECM at the desired operating torque is greater than the breakdown speed of the induction motor being emulated; setting the demand torque for the ECM substantially equal to the desired operating torque for the ECM if the motor operating speed of the ECM at the desired operating torque is less than the breakdown speed of the induction motor being emulated; determining if an output torque of the ECM is equal to the demand torque; moving the output torque toward the demand torque if the output torque is not equal to the demand torque; and operating the ECM at the output torque.
Method for producing a component, in particular a vehicle body part, in which a workpiece for producing the component passes through multiple manufacturing stages, and, in each manufacturing stage, a manufacturing process is carried out, and the workpiece, for the purpose of realizing each manufacturing stage, is in each case fed to a respective processing station for carrying out the respective manufacturing process, wherein at least one of the manufacturing processes is a hot forming process for the workpiece, for the purpose of which the workpiece is subjected to a first, at least partial heating, and, after the hot forming process, at least one further manufacturing process is carried out at the workpiece, wherein, after the hot forming process, the workpiece, for the purpose of improving its deformability and/or reducing strength, for preparation of the further manufacturing process, is at least partially reheated by means of at least one heating device (41, 42, 43) arranged between processing stations in the manufacturing process sequence, wherein the reheating of the workpiece is realized inductively by means of current flow, in the form of eddy currents through the workpiece, characterized in that the hot forming process is a first hot forming process, and the further manufacturing process carried out after the first hot forming process is a second hot forming process, or in that the manufacturing process carried out after the hot forming process is a separation process, in particular a mechanical cutting process.
A method, in a network node operating in a first radio access network, RAN, according to a first radio access technology, RAT, the method comprising: receiving a handover request for a user equipment from a cell in a second RAN operating according to a second RAT; after handover of the user equipment to a cell in the first RAN is completed, configuring the user equipment to measure one or more frequencies corresponding to the second RAN; based on measurements reported by the user equipment for the one or more frequencies, identifying one or more detected cells exceeding a measurement threshold; and sending a handover report towards the second RAN, the handover report comprising, for at least one detected cell exceeding the measurement threshold, a physical cell identifier for the detected cell and a frequency identifier for the detected cell. receiving a handover request for a user equipment from a cell in a second RAN operating according to a second RAT; after handover of the user equipment to a cell in the first RAN is completed, configuring the user equipment to measure one or more frequencies corresponding to the second RAN; based on measurements reported by the user equipment for the one or more frequencies, identifying one or more detected cells exceeding a measurement threshold; and sending a handover report towards the second RAN, the handover report comprising, for at least one detected cell exceeding the measurement threshold, a physical cell identifier for the detected cell and a frequency identifier for the detected cell.
A control system for a wind turbine, the control system comprises at least two controller units: a first controller arranged for determining an operational value of a sub-system of the control system, the first controller being arranged to operate at a first sample frequency; and a second controller for operating the sub-system, the second controller unit being arranged to operate at a second sample frequency, the second sample frequency being higher than the first sample frequency; wherein the control system is arranged for receiving a demand value for controlling the sub-system; wherein the control system is characterized by being arranged so that the first controller and the second controller receives the demand value concurrently; wherein the second controller determines a difference value between the demand value as received by the second controller and the demand value received via the first controller to the second controller; wherein the first controller based on the demand value determines an internal operational value; and wherein the second controller receives the internal operational value and sets the operational value as the sum of the internal operational value and the difference value. a first controller arranged for determining an operational value of a sub-system of the control system, the first controller being arranged to operate at a first sample frequency; and a second controller for operating the sub-system, the second controller unit being arranged to operate at a second sample frequency, the second sample frequency being higher than the first sample frequency; wherein the control system is arranged for receiving a demand value for controlling the sub-system; wherein the control system is characterized by being arranged so that the first controller and the second controller receives the demand value concurrently; wherein the second controller determines a difference value between the demand value as received by the second controller and the demand value received via the first controller to the second controller; wherein the first controller based on the demand value determines an internal operational value; and wherein the second controller receives the internal operational value and sets the operational value as the sum of the internal operational value and the difference value.
Device for using wind energy that, in order to conduct the wind flow effectively onto a rotor converting the flow energy, has at least one guide surface which conducts the wind in such a way that the rotor, whose axis of rotation is arranged transversely to the flow direction, is acted on by the flow, characterized in that the rotor is hollow along its axis of rotation and is mounted on a circular rail.
A flexible organic light-emitting display device (100, 200) comprising: a first flexible substrate (102, 202); a second flexible substrate (110, 210) facing the first flexible substrate (102, 202); a plurality of organic light-emitting pixels (104, 204) on the first flexible substrate (102, 202) and interposed between the first flexible substrate (102, 202) and the second flexible substrate (104, 204); and an adhesive layer (108, 208) configured to adhere the first flexible substrate (102, 202) to the second flexible substrate (110, 210), wherein the flexible organic light-emitting display device (100, 200) is in a rolled-up form when the first and second flexible substrates (102, 202, 110, 210) are curved toward the first flexible substrate (102, 202); wherein a Young's modulus of the first flexible substrate (102, 202) and a Young's modulus of the second flexible substrate (110, 210) are larger than that of the adhesive layer (108, 208), characterized in that the second flexible substrate (110, 210) is made of a metal plate having a higher breaking strength against tensile stress than that of the first flexible substrate (102, 202), the adhesive layer (108, 208) is made of an Epoxy resin, the thickness of the adhesive layer (108, 208) is between 40 μ m and 60 μ m, and the adhesive layer (108, 208) has a Young's modulus of 900 MPa or higher in a cured state. a first flexible substrate (102, 202); a second flexible substrate (110, 210) facing the first flexible substrate (102, 202); a plurality of organic light-emitting pixels (104, 204) on the first flexible substrate (102, 202) and interposed between the first flexible substrate (102, 202) and the second flexible substrate (104, 204); and an adhesive layer (108, 208) configured to adhere the first flexible substrate (102, 202) to the second flexible substrate (110, 210), wherein the flexible organic light-emitting display device (100, 200) is in a rolled-up form when the first and second flexible substrates (102, 202, 110, 210) are curved toward the first flexible substrate (102, 202); wherein a Young's modulus of the first flexible substrate (102, 202) and a Young's modulus of the second flexible substrate (110, 210) are larger than that of the adhesive layer (108, 208), characterized in that the second flexible substrate (110, 210) is made of a metal plate having a higher breaking strength against tensile stress than that of the first flexible substrate (102, 202), the adhesive layer (108, 208) is made of an Epoxy resin, the thickness of the adhesive layer (108, 208) is between 40 μ m and 60 μ m, and the adhesive layer (108, 208) has a Young's modulus of 900 MPa or higher in a cured state.
A composition comprising a diacrylate compound represented by the following general formula and at least one selected from the group consisting of a urethane acrylate oligomer and a urethane methacrylate oligomer: wherein R denotes a hydrogen atom or a methyl group.
A device comprising: one or more microphone devices configured to generate audio data comprising spoken voice data based on spoken words of a user; and an anonymization circuit configured to: receive the audio data comprising the spoken voice data from the one or more microphone devices; generate anonymized audio data by anonymizing the audio data to prevent one or more applications (114, 118; 320, 322, 324) from extracting private information of the user from the audio data; and provide the anonymized audio data to the one or more applications (114, 118; 320, 322, 324); characterised in that the device further comprises an identification circuit configured to: receive the anonymized audio data from the anonymization circuit; evaluate operations performed by the anonymization circuit by determining whether the private information is extractible from the anonymized audio data; and cause the anonymization circuit to update the operations in response to a determination that the private information is extractible from the anonymized audio data. one or more microphone devices configured to generate audio data comprising spoken voice data based on spoken words of a user; and an anonymization circuit configured to: receive the audio data comprising the spoken voice data from the one or more microphone devices; generate anonymized audio data by anonymizing the audio data to prevent one or more applications (114, 118; 320, 322, 324) from extracting private information of the user from the audio data; and provide the anonymized audio data to the one or more applications (114, 118; 320, 322, 324); receive the audio data comprising the spoken voice data from the one or more microphone devices; generate anonymized audio data by anonymizing the audio data to prevent one or more applications (114, 118; 320, 322, 324) from extracting private information of the user from the audio data; and provide the anonymized audio data to the one or more applications (114, 118; 320, 322, 324); characterised in that the device further comprises an identification circuit configured to: receive the anonymized audio data from the anonymization circuit; evaluate operations performed by the anonymization circuit by determining whether the private information is extractible from the anonymized audio data; and cause the anonymization circuit to update the operations in response to a determination that the private information is extractible from the anonymized audio data. receive the anonymized audio data from the anonymization circuit; evaluate operations performed by the anonymization circuit by determining whether the private information is extractible from the anonymized audio data; and cause the anonymization circuit to update the operations in response to a determination that the private information is extractible from the anonymized audio data.
A fusion protein comprising a DNA-binding domain that binds specifically to a preselected target sequence that is within 250 bp of a CpG diresidue in a mammalian cell, wherein the DNA-binding domain is or comprises an engineered transcription activator-like effector repeat array and a catalytic domain comprising a sequence that catalyzes the demethylation of cytosine in DNA, wherein the sequence comprises amino acids 1580-2052 of Tet1 (SEQ ID NO: 2), wherein the fusion protein binds to the target sequence and reduces methylation of the CpG diresidue. a DNA-binding domain that binds specifically to a preselected target sequence that is within 250 bp of a CpG diresidue in a mammalian cell, wherein the DNA-binding domain is or comprises an engineered transcription activator-like effector repeat array and a catalytic domain comprising a sequence that catalyzes the demethylation of cytosine in DNA, wherein the sequence comprises amino acids 1580-2052 of Tet1 (SEQ ID NO: 2), wherein the fusion protein binds to the target sequence and reduces methylation of the CpG diresidue.
A fuel cell structure 1000 comprising: at least one fuel cell stack 1100 in which a fuel channel and air channel areformed, the fuel cell stack including: an upper end plate 1120 having a first pressing plate 1121, and at least one first fastened portion 1122 protruding in a horizontal direction from at least one lateral face of the first pressing plate; a lower end plate 1130 having a second pressing plate 1131 opposite to the first pressing plate and at least one second fastened portion 1132 protruding in a horizontal direction from at least one of lateral face of the second pressing plate; and a stack structure 1110 of single cells disposed between the first pressing plate and the second pressing plate;a support 1200 including a support plate 1210 disposed on a bottom of the fuel cell stack 1110 to support the fuel cell stack 1110; anda fastener extending through the first fastened portion, the second fastened portion and the support plate to fasten the fuel cell stack 1100 to the support 1120, characterized in that - the second pressing plate 1131 comprises a first fuel supply hole 130-1a defining an inlet of the fuel channel and a first air supply hole 130-2a defining an inlet of the air channel, - the support plate 1210 comprises a second fuel supply hole 210-1a to which a fuel supply pipe configured to supply fuel to the fuel channel is connected and a second air supply hole 210-2a to which an air supply pipe 1430 configured to supply air to the air channel is connected, - the second fuel supply hole 210-1a and the second air supply hole 210-2a respectively communicate with the first fuel supply hole 130-1a and the first air supply hole 130-2a. an upper end plate 1120 having a first pressing plate 1121, and at least one first fastened portion 1122 protruding in a horizontal direction from at least one lateral face of the first pressing plate; a lower end plate 1130 having a second pressing plate 1131 opposite to the first pressing plate and at least one second fastened portion 1132 protruding in a horizontal direction from at least one of lateral face of the second pressing plate; and a stack structure 1110 of single cells disposed between the first pressing plate and the second pressing plate;a support 1200 including a support plate 1210 disposed on a bottom of the fuel cell stack 1110 to support the fuel cell stack 1110; anda fastener extending through the first fastened portion, the second fastened portion and the support plate to fasten the fuel cell stack 1100 to the support 1120, - the second pressing plate 1131 comprises a first fuel supply hole 130-1a defining an inlet of the fuel channel and a first air supply hole 130-2a defining an inlet of the air channel, - the support plate 1210 comprises a second fuel supply hole 210-1a to which a fuel supply pipe configured to supply fuel to the fuel channel is connected and a second air supply hole 210-2a to which an air supply pipe 1430 configured to supply air to the air channel is connected, - the second fuel supply hole 210-1a and the second air supply hole 210-2a respectively communicate with the first fuel supply hole 130-1a and the first air supply hole 130-2a.