mhurhangee/ep-ind-claims huggingface dataset:
Training system for carrying out surgical procedures on a mechanical model object, which training system has an anatomical specimen or a simulation unit for depicting parts of the human body, comprising at least a first functional portion which represents a region of the human bone system, and a second functional portion (12") which simulates a region of the human soft tissue system, and which training system also has a detection device for measuring selected, time-varying parameters of the specimen or of the simulation unit during a surgical training procedure, the detection device comprising at least one self-contained cavity incorporated into the anatomical specimen or into the simulation unit, which self-contained cavity is filled with a fluid during a surgical training procedure, the fluid in the cavities being a gas or gas mixture; a pump apparatus being present which, during operation of the training system, through gas supply lines which feed into the cavities, constantly maintains the gas or gas mixture in the cavities at a higher overpressure p Ü than the ambient pressure pu, the detection device containing a separate pressure sensor for each of the cavities, each pressure sensor being assigned to one of the cavities and constantly measuring the relevant current internal pressure p I in this cavity; and the training system comprising a feedback module which receives the current pressure data, measured by the pressure sensors of the cavities, constantly determines whether the condition p Ü > pu is fulfilled for each of the cavities and, in the event of a pressure drop in a cavity being measured, in particular caused by mechanical damage to the cavity, passes this information on to the surgeon training on the training system in a manner that is recognizable to the surgeon, characterized in that the detection device has additional sensors which, during a surgical training procedure using the training system, monitor the current force input to simulated middle ear structures (17; 17a; 17b; 17c; 17d) as well as the success of fitting active or passive middle ear implants by the training surgeon in real time and transmit corresponding electrical signals to the feedback module, which converts these into optical or acoustic information and passes them on to the training surgeon.
A plasma treatment apparatus comprising: a cover attached to a body part; a plasma generation unit configured to generate plasma and provide the plasma to the cover; a gas supply unit configured to supply a source gas for generating the plasma to the plasma generation unit; and an exhaust unit configured to exhaust an exhaust gas from the cover, wherein the plasma generation unit is integrated with the cover and generates the plasma in a space between the cover and the body part, characterized in that the plasma generation unit includes: a first electrode formed on an opposite surface of a dielectric material constituting the cover, the opposite surface being opposite to one surface of the dielectric material that faces the body part; and a second electrode formed on the one surface of the dielectric material. a cover attached to a body part; a plasma generation unit configured to generate plasma and provide the plasma to the cover; a gas supply unit configured to supply a source gas for generating the plasma to the plasma generation unit; and an exhaust unit configured to exhaust an exhaust gas from the cover, wherein the plasma generation unit is integrated with the cover and generates the plasma in a space between the cover and the body part, characterized in that the plasma generation unit includes: a first electrode formed on an opposite surface of a dielectric material constituting the cover, the opposite surface being opposite to one surface of the dielectric material that faces the body part; and a second electrode formed on the one surface of the dielectric material. a first electrode formed on an opposite surface of a dielectric material constituting the cover, the opposite surface being opposite to one surface of the dielectric material that faces the body part; and a second electrode formed on the one surface of the dielectric material.
An agrochemical formulation comprising an agrochemical active and a dispersant polymer of structure that is random, blocky, or star shaped copolymers where R 1 R 2 and R 3 are independently H, CH 3, COOH and CH 2 COOH, where a, b and c are the mole percent of the individual groups so that a+b+c=100, a is from 0.1 to 50, and c is from 1 to 15, wherein X is a linking group selected from the group consisting of: R hy is 2-ethyl hexyl or benzyl; B is a moiety derived from polymerizing acrylic acid or methacrylic acid and it salts; and C is a moiety derived from polymerizing 2-acrylamido-2-methylpropane sulfonic acid and it salts; and wherein said agrochemical active is selected from the group consisting of herbicides, insecticides, fungicides, biocides, molluscicides, algaicides, plant growth regulators, anthelmintics, rodenticides, nematocides, acaricides, amoebicides, protozoacides, crop safeners and adjuvants, wherein the number average molecular weight of structure is less than 20,000. where R 1 R 2 and R 3 are independently H, CH 3, COOH and CH 2 COOH, where a, b and c are the mole percent of the individual groups so that a+b+c=100, a is from 0.1 to 50, and c is from 1 to 15, wherein X is a linking group selected from the group consisting of: R hy is 2-ethyl hexyl or benzyl; B is a moiety derived from polymerizing acrylic acid or methacrylic acid and it salts; and C is a moiety derived from polymerizing 2-acrylamido-2-methylpropane sulfonic acid and it salts; and
A method of mounting or dismounting a wind turbine component of an energy generating unit in a multirotor wind turbine, the multirotor wind turbine comprising a tower configured to support one or more load carrying structures (103, 302) each extending between a first end and a second end, wherein each load carrying structure (103, 302) is arranged for supporting at least two energy generating units arranged at or near the first and second ends of the load carrying structure (103, 302) and at opposite sides of the tower, and wherein the load carrying structure (103, 302) is attached to the tower optionally via a yaw arrangement allowing the load carrying structure (103, 302) to yaw around the tower, the method comprising: - securing the load carrying structure (103, 302) against up and down tilting movements, and - thereafter positioning or dispositioning the wind turbine component at or near the first end of the load carrying structure (103, 302), wherein the securing of the load carrying structure (103, 302) comprises tethering an end of the load carrying structure (103, 302) by one or more cables, wherein the load carrying structure (103, 302) is tethered at or near the second end if positioning the wind turbine component and is tethered at or near the first end if dispositioning the wind turbine component, the cable extending between a first cable end attached to the load carrying structure (103, 302) and an opposite, second cable end, characterized in that the second cable end is 2. anchored to the ground. - securing the load carrying structure (103, 302) against up and down tilting movements, and - thereafter positioning or dispositioning the wind turbine component at or near the first end of the load carrying structure (103, 302),
An isolated micro-organism of the species Monascus ruber, characterized in that said micro-organism contains at least one engineered gene deletion and/or inactivation in an endogenous gene encoding a pyruvate decarboxylase (pdc), said endogenous gene comprising a nucleotide sequence selected from the group consisting of SEQ ID NO: 3, SEQ ID NO: 4 and/or SEQ ID NO: 5.
A method by a terminal in a wireless communication system, the method comprising: determining whether a first signal including synchronization information is received on at least one of an uplink and a downlink; and transmitting, if the first signal including the synchronization information is not received, a second signal including synchronization information; and stopping transmitting the second signal including synchronization information if the first signal including the synchronization information is received. determining whether a first signal including synchronization information is received on at least one of an uplink and a downlink; and transmitting, if the first signal including the synchronization information is not received, a second signal including synchronization information; and stopping transmitting the second signal including synchronization information if the first signal including the synchronization information is received.
A quick assembling/disassembling structure for motor handle module of electrical gear box, comprising: a firearm body; and a grip; characterized in that the grip, is coupled, in a sideways manner, to the firearm body the firearm body having an end forming a coupling section to be coupled with the grip, the coupling section having inside surfaces forming a guide section; and a connection section, which is coupled to the coupling section and is formed in the grip. a firearm body; and a grip; characterized in that the grip, is coupled, in a sideways manner, to the firearm body the firearm body having an end forming a coupling section to be coupled with the grip, the coupling section having inside surfaces forming a guide section; and a connection section, which is coupled to the coupling section and is formed in the grip.
A method of examining a sample in a charged-particle microscope of a scanning transmission type, comprising the following steps: - Providing a beam of charged particles that is directed from a source through an illuminator so as to irradiate the sample; - Providing a detector for detecting a flux of charged particles traversing the sample, which detector is embodied to comprise a plurality of detection segments; - Causing said beam to scan across a surface of the sample, and recording an output of the detector as a function of scan position, resulting in accumulation of a charged-particle image of the sample, - Combining signals from different segments of the detector so as to produce a vector output from the detector at each scan position, and compiling this data to yield a vector field; characterised by - Mathematically processing said vector field by subjecting it to a two-dimensional integration operation, thereby producing an integrated vector field image that is a scalar field. - Providing a beam of charged particles that is directed from a source through an illuminator so as to irradiate the sample; - Providing a detector for detecting a flux of charged particles traversing the sample, which detector is embodied to comprise a plurality of detection segments; - Causing said beam to scan across a surface of the sample, and recording an output of the detector as a function of scan position, resulting in accumulation of a charged-particle image of the sample, - Combining signals from different segments of the detector so as to produce a vector output from the detector at each scan position, and compiling this data to yield a vector field; - Mathematically processing said vector field by subjecting it to a two-dimensional integration operation, thereby producing an integrated vector field image that is a scalar field.
Explosion-proof, pressure-resistant housing having at least one shaft bushing, wherein an annular air gap designed to be ignition-proof is formed in the region between a housing, on the one hand, and the rotatably mounted shaft, on the other hand, characterized in that in the region between the housing and the shaft there is arranged an adjustable adjustment unit, with which the gap width and/or the gap length of the air gap can be adjusted, wherein the adjustment unit is repositioned until the desired dimension of the gap width or the gap length of the air gap is achieved.
Load-controlling device for controlling the load on an optical transmission line the input of which is coupled to an emitting device suitable for modulating with data and multiplexing a plurality of what are called useful wavelengths into a useful optical signal (S U) to be transmitted over the optical transmission line, the load-controlling device comprising means (11, 13) for generating a filler optical signal (S B), which is composed of at least one filler wavelength (λ B-ON) that is not modulated by data, to be injected into the optical transmission line, the generating means (11, 13) being configured to generate at least one source optical signal (S S) composed of at least a plurality of wavelengths corresponding to the plurality of wavelengths of the useful optical signal (Su) and to select said at least one wavelength (λ B-ON) of the filler optical signal among the wavelengths of the at least one source optical signal (Ss); the load-controlling device being characterized in that it comprises a control module configured to control the selection, by the generating means (11, 13), of said at least one wavelength of the filler optical signal (S B) depending on first information that is indicative of the non-turn-on of at least one wavelength (λ U-OFF) among the plurality of wavelengths of the useful optical signal (S U). the generating means (11, 13) being configured to generate at least one source optical signal (S S) composed of at least a plurality of wavelengths corresponding to the plurality of wavelengths of the useful optical signal (Su) and to select said at least one wavelength (λ B-ON) of the filler optical signal among the wavelengths of the at least one source optical signal (Ss); the load-controlling device being characterized in that it comprises a control module configured to control the selection, by the generating means (11, 13), of said at least one wavelength of the filler optical signal (S B) depending on first information that is indicative of the non-turn-on of at least one wavelength (λ U-OFF) among the plurality of wavelengths of the useful optical signal (S U).
An information processing apparatus comprising: a captured image acquisition section configured to acquire data of an image captured of a target object, wherein the captured image acquisition section acquires data of a color image formed by color-interpolating luminance data obtained using a Bayer array on an image plane; a contour search section configured to obtain a contour line of the image of the target object by searching the captured image for a coordinate point of which a change in luminance relative to the position thereof inside a region occupied by the target object image meets a predetermined condition, wherein the contour search section searches for the coordinate point in a diagonal direction in an array of pixels, using a pixel in the image region as a start point, wherein the contour search section uses a plurality of pixels having the same color in the initial Bayer array as search start points; and a position information generation section configured to generate position information regarding the target object in the real space on the basis of the contour line. a captured image acquisition section configured to acquire data of an image captured of a target object, wherein the captured image acquisition section acquires data of a color image formed by color-interpolating luminance data obtained using a Bayer array on an image plane; a contour search section configured to obtain a contour line of the image of the target object by searching the captured image for a coordinate point of which a change in luminance relative to the position thereof inside a region occupied by the target object image meets a predetermined condition, wherein the contour search section searches for the coordinate point in a diagonal direction in an array of pixels, using a pixel in the image region as a start point, wherein the contour search section uses a plurality of pixels having the same color in the initial Bayer array as search start points; and a position information generation section configured to generate position information regarding the target object in the real space on the basis of the contour line.
A surgical instrument, comprising: a housing assembly; a shaft assembly coupled to the housing assembly; at least one radio-frequency identification scanner configured to receive information from radio-frequency identification tags (1201, 1203) which correspond to surgical instrument components which are couplable to the surgical instrument; and a control circuit, wherein the control circuit is configured to determine, for each surgical instrument component, authenticity of the component based on the information received from the radio-frequency identification tags, wherein the control circuit is further configured to electronically lockout operation of the surgical instrument based on a determination of a lack of authenticity for any one of the surgical instrument components; and wherein the control circuit is further configured to retrieve a second identification information of the surgical instrument component that is determined to lack authenticity, retrieve a temporary override token from a server based on the second identification information, and override a lockout of the surgical instrument based on the temporary override token. a housing assembly; a shaft assembly coupled to the housing assembly; at least one radio-frequency identification scanner configured to receive information from radio-frequency identification tags (1201, 1203) which correspond to surgical instrument components which are couplable to the surgical instrument; and a control circuit, wherein the control circuit is configured to determine, for each surgical instrument component, authenticity of the component based on the information received from the radio-frequency identification tags, wherein the control circuit is further configured to electronically lockout operation of the surgical instrument based on a determination of a lack of authenticity for any one of the surgical instrument components; and wherein the control circuit is further configured to retrieve a second identification information of the surgical instrument component that is determined to lack authenticity, retrieve a temporary override token from a server based on the second identification information, and override a lockout of the surgical instrument based on the temporary override token.
Device for maintenance of high-voltage switchgear/fuses in an installation, the device includes screening plates (20A-C), which are provided with - means (22, 25) for insertion and arrangement of the screening plates (20A-C) in a switchgear cell, - means (23, 24) for fastening of the screening plates (20A-C) to the switchgear cell/installalion, further characterized in that it comprises - means for disconnection of the switchgear/fuses including a shunt with terminal clamps (28A and 28B) at its respective ends for connection of a bypass over the switchgear/fuses - fastening means for fastening of the shunt to the screening plates (20A-C). - means (22, 25) for insertion and arrangement of the screening plates (20A-C) in a switchgear cell, - means (23, 24) for fastening of the screening plates (20A-C) to the switchgear cell/installalion, further characterized in that it comprises - means for disconnection of the switchgear/fuses including a shunt with terminal clamps (28A and 28B) at its respective ends for connection of a bypass over the switchgear/fuses - fastening means for fastening of the shunt to the screening plates (20A-C).
A spinning machine, in particular an open-end spinning machine, comprising a plurality of adjacently arranged workstations, which each include a spinning device to which a process vacuum can be applied and/or include a suction nozzle to which a process vacuum can be applied, comprising at least one vacuum channel extending along the workstations for supplying the spinning devices and/or the suction nozzles with the process vacuum, and comprising at least one maintenance unit, which is displaceable along the workstations and includes at least one pneumatic working element and at least one vacuum line for supplying the pneumatic working element with vacuum, characterized in that the spinning devices and/or the suction nozzles each comprise a closeable connection opening, which is connected to the process vacuum, and that the maintenance unit comprises a suction head, which can be advanced toward the connection opening of the spinning device and/or the suction nozzles and which is connected to the vacuum line.
A method for controlling transaction exchanges between two integrated circuits (12, 14) in a system comprising: the two integrated circuits (12, 14), a power supply for supplying power to a link between the two integrated circuits (12, 14), thereby enabling transaction exchanges between both integrated circuits (12, 14), and a controller controlling the integrated circuits (12, 14) and the power supply, characterised in that the method comprises the steps of: receiving an order at the controller, wherein the order requires the link to be closed; sending an instruction from the controller to each of the two integrated circuits (12, 14), wherein the instruction causes each of the two integrated circuits (12, 14) to stop initiating new transactions; for each one of the two integrated circuits (12, 14), in response to detecting that the one of the two integrated circuits (12, 14) has stopped initiating new transactions, detecting when all pending transactions initiated by the one of the two integrated circuits (12, 14) have been executed; and closing the link in response to detecting that all pending transactions of both of the two integrated circuits (12, 14) have been executed. the two integrated circuits (12, 14), a power supply for supplying power to a link between the two integrated circuits (12, 14), thereby enabling transaction exchanges between both integrated circuits (12, 14), and a controller controlling the integrated circuits (12, 14) and the power supply, characterised in that the method comprises the steps of: receiving an order at the controller, wherein the order requires the link to be closed; sending an instruction from the controller to each of the two integrated circuits (12, 14), wherein the instruction causes each of the two integrated circuits (12, 14) to stop initiating new transactions; for each one of the two integrated circuits (12, 14), in response to detecting that the one of the two integrated circuits (12, 14) has stopped initiating new transactions, detecting when all pending transactions initiated by the one of the two integrated circuits (12, 14) have been executed; and closing the link in response to detecting that all pending transactions of both of the two integrated circuits (12, 14) have been executed. receiving an order at the controller, wherein the order requires the link to be closed; sending an instruction from the controller to each of the two integrated circuits (12, 14), wherein the instruction causes each of the two integrated circuits (12, 14) to stop initiating new transactions; for each one of the two integrated circuits (12, 14), in response to detecting that the one of the two integrated circuits (12, 14) has stopped initiating new transactions, detecting when all pending transactions initiated by the one of the two integrated circuits (12, 14) have been executed; and closing the link in response to detecting that all pending transactions of both of the two integrated circuits (12, 14) have been executed.