mhurhangee/ep-ind-claims huggingface dataset:
Suction head for suctioning a liquid containing organic components, comprising - an inner surface defining a main channel of the suction head, the main channel extending along a main axis of the suction head towards a suction connection of the suction head, and - suction holes entering into the suction head and feeding through the inner surface into the main channel, wherein flow-guiding devices of the suction head are configured such that the flow-guiding devices impart a rotational component about the main axis to a flow of the liquid through the main channel, the flow being brought about by a negative pressure in the suction connection, and the liquid entering through the suction holes, characterized in that the suction connection comprises an inner partial connection connecting to the main channel on the main axis, and an outer partial connection feeding through the inner surface into the main channel at a distance to the main axis. - an inner surface defining a main channel of the suction head, the main channel extending along a main axis of the suction head towards a suction connection of the suction head, and - suction holes entering into the suction head and feeding through the inner surface into the main channel, wherein flow-guiding devices of the suction head are configured such that the flow-guiding devices impart a rotational component about the main axis to a flow of the liquid through the main channel, the flow being brought about by a negative pressure in the suction connection, and the liquid entering through the suction holes, characterized in that the suction connection comprises an inner partial connection connecting to the main channel on the main axis, and an outer partial connection feeding through the inner surface into the main channel at a distance to the main axis.
A medical device comprising an antimicrobial coating, wherein said medical device is obtainable by: (a) applying a coating composition to a medical device, wherein said coating composition consisting of: - an acrylate polymer or copolymer matrix; - 0.2 % to 20 % of the dry weight of the coating, of a rheological modifier selected from the group consisting of castor wax, polyamide wax, polyurethane, and fumed silica; - an antimicrobial agent uniformly distributed through the matrix and able to gradually diffuse out of the matrix when the matrix is softened by IV fluids or other fluids; and - a mild solvent selected from the group consisting of low molecular weight alcohols selected from methanol, ethanol, propanol, isopropanol, and butanol, low molecular weight alkanes selected from pentane, hexane, heptanes, and isomers thereof, acetone, and combinations thereof; and (b) evaporating the mild solvent to form the antimicrobial coating on the medical device. (a) applying a coating composition to a medical device, wherein said coating composition consisting of: - an acrylate polymer or copolymer matrix; - 0.2 % to 20 % of the dry weight of the coating, of a rheological modifier selected from the group consisting of castor wax, polyamide wax, polyurethane, and fumed silica; - an antimicrobial agent uniformly distributed through the matrix and able to gradually diffuse out of the matrix when the matrix is softened by IV fluids or other fluids; and - a mild solvent selected from the group consisting of low molecular weight alcohols selected from methanol, ethanol, propanol, isopropanol, and butanol, low molecular weight alkanes selected from pentane, hexane, heptanes, and isomers thereof, acetone, and combinations thereof; and - an acrylate polymer or copolymer matrix; - 0.2 % to 20 % of the dry weight of the coating, of a rheological modifier selected from the group consisting of castor wax, polyamide wax, polyurethane, and fumed silica; - an antimicrobial agent uniformly distributed through the matrix and able to gradually diffuse out of the matrix when the matrix is softened by IV fluids or other fluids; and - a mild solvent selected from the group consisting of low molecular weight alcohols selected from methanol, ethanol, propanol, isopropanol, and butanol, low molecular weight alkanes selected from pentane, hexane, heptanes, and isomers thereof, acetone, and combinations thereof; and (b) evaporating the mild solvent to form the antimicrobial coating on the medical device.
A polycarbonate resin composition comprising: a polycarbonate; a cyclic phosphite ester compound; a linear phosphite ester compound; a vinyl-based polymer containing a (meth)acrylate repeating unit containing an epoxy functional group; and a photoreactive compound containing a phenylene functional group, wherein the linear phosphite ester compound is contained in an amount of 40 parts by weight to 90 parts by weight relative to 100 parts by weight of the cyclic phosphite ester compound. a polycarbonate; a cyclic phosphite ester compound; a linear phosphite ester compound; a vinyl-based polymer containing a (meth)acrylate repeating unit containing an epoxy functional group; and a photoreactive compound containing a phenylene functional group, wherein the linear phosphite ester compound is contained in an amount of 40 parts by weight to 90 parts by weight relative to 100 parts by weight of the cyclic phosphite ester compound.
A vehicle configured to perform plug-in charging for charging a power storage device mounted in the vehicle with electric power supplied through a charging cable from a charging facility external to the vehicle, the vehicle comprising: an inlet to which a connector of the charging cable is connectable; further comprising: a controller configured to control a supply current from the charging facility such that the supply current does not exceed a maximum allowable current, characterized in the controller being configured to obtain specific information as to whether or not the charging facility is provided with a cooling mechanism for cooling the connector and the inlet, and set the maximum allowable current to be higher when the charging facility is provided with the cooling mechanism than when the charging facility is not provided with the cooling mechanism. a controller configured to control a supply current from the charging facility such that the supply current does not exceed a maximum allowable current, characterized in the controller being configured to obtain specific information as to whether or not the charging facility is provided with a cooling mechanism for cooling the connector and the inlet, and set the maximum allowable current to be higher when the charging facility is provided with the cooling mechanism than when the charging facility is not provided with the cooling mechanism. obtain specific information as to whether or not the charging facility is provided with a cooling mechanism for cooling the connector and the inlet, and set the maximum allowable current to be higher when the charging facility is provided with the cooling mechanism than when the charging facility is not provided with the cooling mechanism.
A method for transmitting data between a central control apparatus (200, 200') and at least one decentralized device (101, 102, 100'), having the following steps: - generating, in the central control apparatus (200, 200'), a data telegram for the multicast transmission of data to a group of devices that are located in a defined spatial region, the data telegram comprising identification information that identifies the defined spatial region, - unidirectionally transmitting the data telegram from the central control apparatus (200, 200') to at least one decentralized device (101, 102, 100'), wherein the at least one decentralized device is designed to recognize whether it is currently located in the spatial region identified by the identification information, - monitoring the transmission duration of the transmission of the data telegram from the central control apparatus (200, 200') to the at least one decentralized device (101, 102, 100'), and - triggering a predetermined safety reaction if the transmission duration exceeds a predetermined value. - generating, in the central control apparatus (200, 200'), a data telegram for the multicast transmission of data to a group of devices that are located in a defined spatial region, the data telegram comprising identification information that identifies the defined spatial region, - unidirectionally transmitting the data telegram from the central control apparatus (200, 200') to at least one decentralized device (101, 102, 100'), wherein the at least one decentralized device is designed to recognize whether it is currently located in the spatial region identified by the identification information, - monitoring the transmission duration of the transmission of the data telegram from the central control apparatus (200, 200') to the at least one decentralized device (101, 102, 100'), and - triggering a predetermined safety reaction if the transmission duration exceeds a predetermined value.
A system for transporting a liquid from a reservoir containing the liquid, to a level above a liquid surface in the reservoir, wherein the system comprises: - an upper coil pump, with an inlet end and an outlet end; - a lower coil pump with an inlet end and an outlet end; - wherein the inlet end of the upper coil pump is fluidly coupled to the outlet end of the lower coil pump; - wherein the inlet end of the lower coil pump is fluidly coupled to an outlet from the reservoir; - wherein the upper coil pump is arranged at a higher level than the lower coil pump; and - a control system coupled to a sensor, said sensor monitoring the liquid level in the reservoir, the control system being coupled to the coil pumps to control activation and deactivation of the coil pumps (200, 300) depending on the liquid level in the reservoir. - an upper coil pump, with an inlet end and an outlet end; - a lower coil pump with an inlet end and an outlet end; - wherein the inlet end of the upper coil pump is fluidly coupled to the outlet end of the lower coil pump; - wherein the inlet end of the lower coil pump is fluidly coupled to an outlet from the reservoir; - wherein the upper coil pump is arranged at a higher level than the lower coil pump; and - a control system coupled to a sensor, said sensor monitoring the liquid level in the reservoir, the control system being coupled to the coil pumps to control activation and deactivation of the coil pumps (200, 300) depending on the liquid level in the reservoir.
A device for machining a workpiece by irradiation by means of laser radiation, having the following features: • a laser radiation source, • an accommodating region for accommodating a workpiece to be machined, • a beam shaping unit, which is inserted into the beam path of the laser radiation generated by the laser radiation source between laser radiation source and accommodating region and is set up to generate at least two different predetermined intensity distributions by means of local modulation of the laser radiation, namely at least one first intensity distribution and a second intensity distribution of the laser radiation on the workpiece, • a movement unit which is set up to effect a movement of the laser radiation generated by the laser radiation source on a workpiece that is arranged in the accommodating region, and characterized by: • a control unit which activates both the movement unit and the beam shaping unit, wherein the control unit is set up to guide the laser radiation which has the first intensity distribution on the workpiece over the workpiece along a first path, and the laser radiation which has the second intensity distribution on the workpiece over the workpiece along a second path which is different from the first path, wherein a larger area of the workpiece is machined by means of the laser radiation along the first path than along the second path, in particular the second area is at most 10 % of the first area, preferably less than 5 % of the first area and particularly preferably at most 1 % of the first area. • a laser radiation source, • an accommodating region for accommodating a workpiece to be machined, • a beam shaping unit, which is inserted into the beam path of the laser radiation generated by the laser radiation source between laser radiation source and accommodating region and is set up to generate at least two different predetermined intensity distributions by means of local modulation of the laser radiation, namely at least one first intensity distribution and a second intensity distribution of the laser radiation on the workpiece, • a movement unit which is set up to effect a movement of the laser radiation generated by the laser radiation source on a workpiece that is arranged in the accommodating region, and • a control unit which activates both the movement unit and the beam shaping unit, wherein the control unit is set up to guide the laser radiation which has the first intensity distribution on the workpiece over the workpiece along a first path, and the laser radiation which has the second intensity distribution on the workpiece over the workpiece along a second path which is different from the first path,
A surgical stapler, comprising: an actuator; a staple cartridge channel configured to receive a staple cartridge; and an anvil movably coupled to said staple cartridge channel; characterised in that the surgical stapler further comprises: a first magnetic element operably coupled with said actuator; and a second magnetic element positioned within said anvil, wherein said first magnetic element is configured to apply a magnetic force to said second magnetic element upon an actuation of the actuator, and wherein said magnetic force is sufficient to pivot said anvil relative to said staple cartridge channel. an actuator; a staple cartridge channel configured to receive a staple cartridge; and an anvil movably coupled to said staple cartridge channel; a first magnetic element operably coupled with said actuator; and a second magnetic element positioned within said anvil, wherein said first magnetic element is configured to apply a magnetic force to said second magnetic element upon an actuation of the actuator, and wherein said magnetic force is sufficient to pivot said anvil relative to said staple cartridge channel.
A pane with at least one electrical connection element, comprising: - a substrate, - an electrically conductive structure on a region of the substrate, - a layer of a leadfree solder material on a region of the electrically conductive structure, and - a connection element on the solder material, wherein the connection element contains a chromium-containing steel with a proportion of chromium greater than or equal to 10.5 wt.-% and a coefficient of thermal expansion of 9 x 10- 6 /°C to 13 x 10 -6 /°C, - the connection element contains a first and a second foot region (7,7'), a first and a second transition region (9,11), and a bridge region between the first and second transition region (9,11), - a first and a second contact surface (8,8') are located on the bottom of the first and second foot regions (7,7'), - the first and second contact surface (8,8') and the surfaces (9',11') of the first and second transition regions (9,11) facing the substrate are connected to the electrically conductive structure by the solder material, and - the angle between the surface of the substrate and each of the tangent planes of the surfaces (9',11') of the transition regions (9,11) facing the substrate is < 90°, - wherein a cavity that is delimited by the electrically conductive structure, the transition regions (9, 11), and the bridge region is completely or not completely filled with solder material. - a substrate, - an electrically conductive structure on a region of the substrate, - a layer of a leadfree solder material on a region of the electrically conductive structure, and - a connection element on the solder material, wherein the connection element contains a chromium-containing steel with a proportion of chromium greater than or equal to 10.5 wt.-% and a coefficient of thermal expansion of 9 x 10- 6 /°C to 13 x 10 -6 /°C, - the connection element contains a first and a second foot region (7,7'), a first and a second transition region (9,11), and a bridge region between the first and second transition region (9,11), - a first and a second contact surface (8,8') are located on the bottom of the first and second foot regions (7,7'), - the first and second contact surface (8,8') and the surfaces (9',11') of the first and second transition regions (9,11) facing the substrate are connected to the electrically conductive structure by the solder material, and - the angle between the surface of the substrate and each of the tangent planes of the surfaces (9',11') of the transition regions (9,11) facing the substrate is < 90°, - wherein a cavity that is delimited by the electrically conductive structure, the transition regions (9, 11), and the bridge region is completely or not completely filled with solder material.
Cover device for covering a surface of a liquid in a pond, having a shell defining an inner cavity, and the inner cavity is to be filled at least partly with liquid, wherein the inner cavity is divided in at least two chambers (3,4) by a separating means (5,51,52), and one of the chambers is provided by at least one opening formed in the shell, and a weight member is arranged in the proximity of said opening, characterized in that said weight member is provided with a through hole, and arranged in the opening of said shell.
A polymerizable composition comprising a binder polymer containing a functional group having a dipole moment of 3.8 debye or more and being represented by the following formula,, or, a radical polymerizable compound and a radical polymerization initiator: wherein X and Y each independently represents -C(R 5)(R 6)-, -C(R 5)=, -O-, -S-, -N(R 5)- or -N=, Z 1 represents O or S, Z 2 represents O or a lone pair, Z 3 represents -C(R 5)(R 6)-, -C(R 5)=, -O-, -S-, -N(R 5)- or -N=, R 1 to R 6 each independently represents a substituent comprising at least one atom selected from hydrogen, carbon, oxygen, nitrogen, sulfur, phosphorus, halogen and silicon or appropriate two of R 1 to R 6 may be combined with each other to form a ring, provided that at least one of R 1 to R 6 represents a divalent connecting group comprising at least one atom selected from hydrogen, carbon, oxygen, nitrogen, sulfur, phosphorus, halogen and silicon and connecting to a skeleton of the binder polymer, wherein the functional group having a dipole moment of 3.8 debye or more and being represented by the following formula,, or is selected from the following groups: Groups of Formula: Groups of Formula: 3.9 4.0 5.4 4.3 5.5 5.6 4.1 5.4 4.8 5.4 5.1 5.1 4.7 5.5 5.3 4.9 6.3 4.1 6.2 5.3 3.9 5.8 4.6 4.7 4.9 4.4 4.9 4.7 4.1 3.9 4.1 3.9 4.7 4.7 Groups of Formulae to: 5.0 5.3 4.9 5.9 5.2 5.3 5.1 4.7 4.7 6.9 5.2 Groups of Formula: Groups of Formula: 3.9 4.0 5.4 4.3 5.5 5.6 4.1 5.4 4.8 5.4 5.1 5.1 4.7 5.5 5.3 4.9 6.3 4.1 6.2 5.3 3.9 5.8 4.6 4.7 4.9 4.4 4.9 4.7 4.1 3.9 4.1 3.9 4.7 4.7 Groups of Formulae to: 5.0 5.3 4.9 5.9 5.2 5.3 5.1 4.7 4.7 6.9 5.2
A control apparatus for taking measures against a shift abnormality upon activation for an electrically driven vehicle, the electrically driven vehicle being started by a motive power from an electrically operated motor and being capable of traveling in a traveling mode corresponding to a signal from a shifter when, with an electrically operated motor controller of the electrically driven vehicle activated, the shifter is operated from a reference position, characterized by: - system activation detecting means (9, S11) for detecting whether a switching from a non-activation state of the electrically operated motor controller to an activation state thereof is made; - shift abnormality detecting means (9, S14) for detecting whether the shifter is kept at a position other than the reference position; and - traveling mode transfer inhibiting means (9, S16, S28, S29) for inhibiting a transfer to the traveling mode corresponding to the position other than the reference position while the shift abnormality detecting means (9, S14) detects that the shifter is kept at the position other than the reference position even if the switching of the electrically operated motor controller to the activation state is detected by the system activation detecting means (9, S11). - system activation detecting means (9, S11) for detecting whether a switching from a non-activation state of the electrically operated motor controller to an activation state thereof is made; - shift abnormality detecting means (9, S14) for detecting whether the shifter is kept at a position other than the reference position; and - traveling mode transfer inhibiting means (9, S16, S28, S29) for inhibiting a transfer to the traveling mode corresponding to the position other than the reference position while the shift abnormality detecting means (9, S14) detects that the shifter is kept at the position other than the reference position even if the switching of the electrically operated motor controller to the activation state is detected by the system activation detecting means (9, S11).
A position acquisition method, comprising: selecting at least one group of N effective devices from known devices that transmit signals to a target device or known devices that receive signals transmitted by the target device, wherein N is equal to a dimension of a coordinate space plus 1; adjusting a numerical value of a conversion scaling factor with respect to each group of N effective devices, and seeking a corrected value of the conversion scaling factor, the corrected value enabling N circles or spheres formed by taking a position of each effective device as a center and a corrected distance between each effective device and the target device as a radius to have a unique intersection; wherein the conversion scaling factor is used to convert a signal intensity of the signal transmitted by the effective device towards the target device or the received signal transmitted by the target device into a distance; and calculating and acquiring a position of the target device by using at least one corrected value of the conversion scaling factor acquired. selecting at least one group of N effective devices from known devices that transmit signals to a target device or known devices that receive signals transmitted by the target device, wherein N is equal to a dimension of a coordinate space plus 1; adjusting a numerical value of a conversion scaling factor with respect to each group of N effective devices, and seeking a corrected value of the conversion scaling factor, the corrected value enabling N circles or spheres formed by taking a position of each effective device as a center and a corrected distance between each effective device and the target device as a radius to have a unique intersection; wherein the conversion scaling factor is used to convert a signal intensity of the signal transmitted by the effective device towards the target device or the received signal transmitted by the target device into a distance; and calculating and acquiring a position of the target device by using at least one corrected value of the conversion scaling factor acquired.