mhurhangee/ep-ind-claims huggingface dataset:
Method for processing a carcass part of slaughtered poultry, which carcass part comprises: - bone parts with at least a part of the rib cage, - at least a part of the breast fillet, - other muscle tissue that does not form part of the breast fillet, for example at least a part of the back meat that is naturally present on the rib cage and the spine and/or at least a part of the abdominal muscle tissue, this method comprising the following steps: - arranging the carcass part on a product carrier that is pivotable about one or more axes (51, 52), - making an incision (110, 110*, 210) through the meat at least up to the bone parts lying under the meat by means of a blade, which incision (110, 110*,210) is made in an area between the breast fillet and the other muscle tissue that does not form part of the breast fillet, and which incision (110, 110*,210) in that area substantially follows the shape of the breast fillet, - detaching the breast fillet from the bone parts of the carcass part, characterised in that, said incision (110, 110*,210) is curved, and in that the curvature of the incision (110, 110*, 210) is obtained by controlled pivoting of the product carrier relative to the blade. - bone parts with at least a part of the rib cage, - at least a part of the breast fillet, - other muscle tissue that does not form part of the breast fillet, for example at least a part of the back meat that is naturally present on the rib cage and the spine and/or at least a part of the abdominal muscle tissue, - arranging the carcass part on a product carrier that is pivotable about one or more axes (51, 52), - making an incision (110, 110*, 210) through the meat at least up to the bone parts lying under the meat by means of a blade, which incision (110, 110*,210) is made in an area between the breast fillet and the other muscle tissue that does not form part of the breast fillet, and which incision (110, 110*,210) in that area substantially follows the shape of the breast fillet, - detaching the breast fillet from the bone parts of the carcass part, characterised in that,
A process for the manufacture of a tetrafluoroethylene copolymer [polymer] comprising recurring units derived from at least one per(halo)fluoroolefin different from TFE [monomer], in an amount of 0.01 to 0.250 % moles, with respect to the total moles of the copolymer, said process comprising emulsion polymerizing TFE and said at least one monomer in an aqueous medium comprising at least one surfactant [surfactant] complying with formula: wherein: - X 1, X 2 and X 3, equal to or different from each other, are independently selected from H, F and C 1 -C 6 (per)fluoroalkyl groups, optionally comprising one or more catenary or non-catenary oxygen atoms, - R F represents a divalent perfluorinated C 1 -C 3 bridging group, - L represents a bond or a divalent group and - Y represents an anionic functionality, preferably selected from the group consisting of: wherein X a is a hydrogen atom, a monovalent metal, preferably an alkaline metal, or an ammonium group of formula -N(R' n) 4, wherein R' n, equal or different at each occurrence, is a hydrogen atom or a C 1 -C 6 hydrocarbon group, preferably an alkyl group. - X 1, X 2 and X 3, equal to or different from each other, are independently selected from H, F and C 1 -C 6 (per)fluoroalkyl groups, optionally comprising one or more catenary or non-catenary oxygen atoms, - R F represents a divalent perfluorinated C 1 -C 3 bridging group, - L represents a bond or a divalent group and - Y represents an anionic functionality, preferably selected from the group consisting of:
A system (10, 100) for applying electrical stimulation to one or more locations within a brain of a patient, the system comprising: one or more stimulation leads (14, 110, 1001, 1002) for applying electrical stimulation pulses to tissue and for sensing neural activity; an implantable pulse generator (12, 150) for detecting neural activity using the one or more stimulation leads and for generating electrical pulses for application to neural tissue of the patient using the one or more stimulation leads, wherein the implantable pulse generator is adapted to detect cross-frequency coupling in sensed neuronal activity of two separate neural sites, to identify a frequency component of the cross-frequency coupling in a pathological frequency range, and to apply electrical pulses to one or more sites in the brain of the patient in response to identifying the frequency component of the cross-frequency coupling in the pathological frequency range. one or more stimulation leads (14, 110, 1001, 1002) for applying electrical stimulation pulses to tissue and for sensing neural activity; an implantable pulse generator (12, 150) for detecting neural activity using the one or more stimulation leads and for generating electrical pulses for application to neural tissue of the patient using the one or more stimulation leads, wherein the implantable pulse generator is adapted to detect cross-frequency coupling in sensed neuronal activity of two separate neural sites, to identify a frequency component of the cross-frequency coupling in a pathological frequency range, and to apply electrical pulses to one or more sites in the brain of the patient in response to identifying the frequency component of the cross-frequency coupling in the pathological frequency range.
A multi-inverter electric motor controller, comprising a primary inverter and one or more secondary inverters (103,106), the primary inverter and the secondary inverters (103,106) connect in parallel to a same electrical motor, the primary inverter employs silicon-material power electronic devices, the secondary inverters (103,106) employ wide-bandgap semiconductor power electronic devices, and the switching frequency of the primary inverter is less than the switching frequencies of the secondary inverters (103,106), characterized in that: each output phase of the secondary inverters (103,106) connects in series to an inductor (105,107) and subsequently connects in parallel to an output phase of the primary inverter.
A method of producing a pin terminal for a glow plug the method comprising: obtaining a first workpiece which has a rod-like shape, and which is made of the conductive metal; plastically deforming an end surface of a rear end side of the first workpiece into a curved surface shape to obtain a second workpiece; plastically deforming a rear end side of the second workpiece into a small-diameter portion which is configured to be fitted to a cap for supplying electricity from an outside, and plastically deforming a tip end side of the second workpiece into a large-diameter portion which is larger in diameter than the small-diameter portion to obtain a third workpiece; and plastically deforming a flange between the small-diameter portion and the large-diameter portion, the flange being larger in outer diameter than the large-diameter portion, and an engagement portion formed between a position where a diameter of the flange is maximum and the large-diameter portion, an outer diameter of the engagement portion being gradually reduced toward the large-diameter portion, and the engagement portion being configured to be engaged with the cap to obtain a fourth workpiece, wherein, in at least one of the step of deforming the end surface, the step of deforming the rear end side and the step of deforming the third workpiece, a fitting recess to which a rear end portion of an inner shaft of the glow plug is fitted is formed in an end surface of the tip end side of the pin terminal, wherein the fitting recess is formed by pressing a punch which has a convex portion. obtaining a first workpiece which has a rod-like shape, and which is made of the conductive metal; plastically deforming an end surface of a rear end side of the first workpiece into a curved surface shape to obtain a second workpiece; plastically deforming a rear end side of the second workpiece into a small-diameter portion which is configured to be fitted to a cap for supplying electricity from an outside, and plastically deforming a tip end side of the second workpiece into a large-diameter portion which is larger in diameter than the small-diameter portion to obtain a third workpiece; and plastically deforming a flange between the small-diameter portion and the large-diameter portion, the flange being larger in outer diameter than the large-diameter portion, and an engagement portion formed between a position where a diameter of the flange is maximum and the large-diameter portion, an outer diameter of the engagement portion being gradually reduced toward the large-diameter portion, and the engagement portion being configured to be engaged with the cap to obtain a fourth workpiece,
An optical transmitter device comprising: a driving element to: receive a first electrical data signal; and provide a second electrical data signal to an optical element based on the first electrical data signal, wherein the optical element is to provide an optical data signal in response to the second electrical data signal, characterized in that: the driving element is configured to operate at a supply voltage; and the optical transmitter device comprises: a testing element to compare the optical data signal to the first electrical data signal to determine whether the optical transmitter device meets a performance threshold; and a regulating element to reduce a magnitude of the supply voltage of the driving element when the device meets the performance threshold. receive a first electrical data signal; and provide a second electrical data signal to an optical element based on the first electrical data signal, wherein the optical element is to provide an optical data signal in response to the second electrical data signal, characterized in that: the driving element is configured to operate at a supply voltage; and the optical transmitter device comprises: a testing element to compare the optical data signal to the first electrical data signal to determine whether the optical transmitter device meets a performance threshold; and a regulating element to reduce a magnitude of the supply voltage of the driving element when the device meets the performance threshold. a testing element to compare the optical data signal to the first electrical data signal to determine whether the optical transmitter device meets a performance threshold; and a regulating element to reduce a magnitude of the supply voltage of the driving element when the device meets the performance threshold.
Robot joint, having - a robot link, - a drive wheel rotatably mounted on the robot member and an output wheel rotatably mounted on the robot member, - a transmission device coupling the drive wheel to the driven wheel for transmitting a drive torque, and - a motor driving the drive wheel, the motor shaft of which is connected to the drive wheel via a drive connection for introducing the drive torque, characterized by a safety clutch which is designed to disconnect the drive connection between the motor shaft and the drive wheel if a predetermined limit torque is exceeded and if the drive falls below the specified limit torque the drive connection between to restore the motor shaft and the drive wheel, and a sensor device which is designed to detect the angular position of the driven wheel. - a robot link, - a drive wheel rotatably mounted on the robot member and an output wheel rotatably mounted on the robot member, - a transmission device coupling the drive wheel to the driven wheel for transmitting a drive torque, and - a motor driving the drive wheel, the motor shaft of which is connected to the drive wheel via a drive connection for introducing the drive torque,
Brush-holder for an electric machine such as, for example, an electric motor and/or a generator, - with a housing, having a brush support for supporting of at least one brush for electrically contacting of rotor windings of the machine, - wherein the housing has a front side and a back side turned away from the front side, - wherein the front side forms an installation side, - wherein the housing is provided, on the installation side, with a recess for the accommodation of electric and/or electronic units, - wherein said recess is adapted for positioning these units when inserted into the recess from the installation side, such that they can be electrically bonded from the installation side, characterized in that the housing is provided, on the back side, with an opening, which is open to a bonding region in such a way, that for electrically bonding said units are-sistance welding process with a first and second electrode (61, 62) can be performed in the bonding region by introducing the first electrode from the front side into the bonding region and by introducing the second electrode from the back side into the bonding region. - with a housing, having a brush support for supporting of at least one brush for electrically contacting of rotor windings of the machine, - wherein the housing has a front side and a back side turned away from the front side, - wherein the front side forms an installation side, - wherein the housing is provided, on the installation side, with a recess for the accommodation of electric and/or electronic units, - wherein said recess is adapted for positioning these units when inserted into the recess from the installation side, such that they can be electrically bonded from the installation side,
An analyte monitoring device (1120,1501), comprising: a display; a processor; and a memory coupled to the processor, the memory storing instructions which, when executed by the processor, cause the processor to: power on the analyte monitoring device (1120,1501), provide power to an RF reader element within the analyte monitoring device (1120,1501), receive an indication of selection of a scan state on a first screen displayed on the display of the analyte monitoring device (1120,1501), wherein the scan state is for scanning an analyte sensor, activate the scan state and cause the display of a scan prompt screen on the display of the analyte monitoring device (1120,1501), receive an indication of a user-initiated change from the scan prompt screen back to the first screen, and power off the RF reader element and maintain power to the analyte monitoring device (1120,1501). a display; a processor; and a memory coupled to the processor, the memory storing instructions which, when executed by the processor, cause the processor to: power on the analyte monitoring device (1120,1501), provide power to an RF reader element within the analyte monitoring device (1120,1501), receive an indication of selection of a scan state on a first screen displayed on the display of the analyte monitoring device (1120,1501), wherein the scan state is for scanning an analyte sensor, activate the scan state and cause the display of a scan prompt screen on the display of the analyte monitoring device (1120,1501), receive an indication of a user-initiated change from the scan prompt screen back to the first screen, and power off the RF reader element and maintain power to the analyte monitoring device (1120,1501). power on the analyte monitoring device (1120,1501), provide power to an RF reader element within the analyte monitoring device (1120,1501), receive an indication of selection of a scan state on a first screen displayed on the display of the analyte monitoring device (1120,1501), wherein the scan state is for scanning an analyte sensor, activate the scan state and cause the display of a scan prompt screen on the display of the analyte monitoring device (1120,1501), receive an indication of a user-initiated change from the scan prompt screen back to the first screen, and power off the RF reader element and maintain power to the analyte monitoring device (1120,1501).
Lighting system, in particular for a motor vehicle, comprising at least two optical modules (100, 200), each optical module comprising one or more light sources (2, 102, 202), an optical component (104, 204) associated with said one or more light sources (2, 102, 202), a holder (10, 110, 210) of said one or more light sources (2, 102, 202) and a mount (112, 212) for supporting said holder (10, 110, 210), said holder (10, 110, 210) being identical from one module to the next, said supporting mounts (112, 212) respectively being configured to accommodate the associated optical component (104, 204) so that an optical axis (106, 206) of said component is positioned differently with respect to said one or more associated light sources (2, 102, 202), from one module to the next, characterized in that said supporting mounts (112, 212) include pins (116, 216) for the placement of the holders (10, 110, 210) of the one or more light sources (2, 102, 202), the relative position of said pins (116, 216) with respect to said one or more light sources (2, 102, 202) being identical from one module to the next, said supporting mounts (112, 212) being configured so that the optical axis (106, 206) of said components is positioned differently with respect to said pins from one module to the next.
An elastic composite formed by heat and pressure curing a prepreg having up to 80 weight % reinforcement and 20 to 50 weight percent of a silicone resin blend and filler, with the prepreg resin blend formulation having a specific gravity of 1.27±0.25 gm/cc, wherein the silicone resin blend and filler consist of: a high molecular-weight flake silicone resin; an intermediate MW liquid precursor and optionally, a low MW liquid resin, e.g., 5000MW; submicron boron oxide/nitride aggregates as a catalyst in a resin to aggregate weight ratio of 20/1 to 2.5/1, where the boron oxide content of the boron oxide/boron nitride aggregate is 0.5 to 5 wt.% of the boron oxide/nitride aggregate content, and the filler is a submicron refractory filler selected from the group comprising submicron silica, finely divided silica gel, fumed silica, diatomaceous earth, silicon carbide, alumina, zirconia and mixtures thereof, to provide a high temperature cured composite having a porosity from 10 to 20% arising from a pyrolizing step carried out at a temperature from 300 to 1000°C with the resin blend, wherein the flake resin is a dimethylsiloxane polymer containing phenyl silsesquioxane units, wherein the liquid intermediate MW silicone resin is selected from a group consisting of dimethylsiloxane polymers with methyl silsesquioxanes-methoxy terminated, and wherein the liquid low MW silicone resin is selected from silanol terminated, polydimethylsiloxanes and mixtures thereof. a high molecular-weight flake silicone resin; an intermediate MW liquid precursor and optionally, a low MW liquid resin, e.g., 5000MW; submicron boron oxide/nitride aggregates as a catalyst in a resin to aggregate weight ratio of 20/1 to 2.5/1, where the boron oxide content of the boron oxide/boron nitride aggregate is 0.5 to 5 wt.% of the boron oxide/nitride aggregate content, and the filler is a submicron refractory filler selected from the group comprising submicron silica, finely divided silica gel, fumed silica, diatomaceous earth, silicon carbide, alumina, zirconia and mixtures thereof, to provide a high temperature cured composite having a porosity from 10 to 20% arising from a pyrolizing step carried out at a temperature from 300 to 1000°C with the resin blend, wherein the flake resin is a dimethylsiloxane polymer containing phenyl silsesquioxane units, wherein the liquid intermediate MW silicone resin is selected from a group consisting of dimethylsiloxane polymers with methyl silsesquioxanes-methoxy terminated, and wherein the liquid low MW silicone resin is selected from silanol terminated, polydimethylsiloxanes and mixtures thereof.
A method of operating an access network including a plurality of data connections between end user devices and an aggregation transceiver device where the connections are aggregated for onward connection through the access network, the method comprising: storing a plurality of profiles, each of which specifies a set of values for a plurality of parameters associated with the data connections; for each data connection, monitoring the stability of the connection; selecting one of said stored profiles to be applied to the connection; and applying the selected profile to the data connection; characterised by associating one stability level, specifying a desired level of stability, with each data connection, from amongst a plurality of different stability levels, the different stability levels controlling the circumstances under which a connection is transitioned between different profiles; and by the selection step being performed in dependence on both the results of monitoring the connection and the stability level associated with the data connection. storing a plurality of profiles, each of which specifies a set of values for a plurality of parameters associated with the data connections; for each data connection, monitoring the stability of the connection; selecting one of said stored profiles to be applied to the connection; and applying the selected profile to the data connection; characterised by associating one stability level, specifying a desired level of stability, with each data connection, from amongst a plurality of different stability levels, the different stability levels controlling the circumstances under which a connection is transitioned between different profiles; and by the selection step being performed in dependence on both the results of monitoring the connection and the stability level associated with the data connection.
Device for securing a container against the penetration of fluid via an outlet of the container, wherein during the regular operation of the container the fluid can flow into the container via an inlet and out of the container via the outlet, wherein in the container there is a floating body floating on the fluid, the position of which in the container depends on the type and/or amount of fluid in the container, and the floating body is designed to automatically close an outlet opening of the outlet, characterised in that a backflow valve is provided which can be integrated into the container which valve, when integrated into the container, automatically opens or closes a valve opening for fluid in the outlet, wherein the valve opening is positioned in the outflow direction of the fluid over the outlet after the outlet opening, and wherein the backflow valve is designed to block a section of the outflow extending in vertical direction and comprises a backflow flap which closes the valve opening supported by gravity.
Fluorescence lifetime microscopy method with time-correlated single-photon counting, wherein a sample is periodically excited with excitation light pulses using a pulsed light source to emit fluorescence photons, wherein a measurement interval is defined in each case between two consecutive excitation light pulses, the fluorescence photons are captured using a detector and an analogue detector signal representing the captured fluorescence photons is generated, on the basis of the detector signal, detection times at which the fluorescence photons inside the respective measurement intervals are detected by the detector are determined, at least one variable characterizing the fluorescence decay behaviour is determined on the basis of the detection times of the captured fluorescence photons, and imaging is carried out on the basis of the characterizing variable, wherein the analogue detector signal inside the respective measurement interval is sampled in a plurality of sampling intervals and is converted into a series of discrete signal values, which are assigned to the individual sampling intervals, and by means of the series of discrete signal values associated with the respective measurement interval, it is determined whether more than a predetermined number of fluorescence photons have been captured inside the measurement interval, wherein the predetermined number is greater than or equal to 1, characterized in that this measurement interval for determining the variable characterizing the fluorescence decay behaviour is discarded if more than this predetermined number of fluorescence photons have been captured.