mhurhangee/ep-ind-claims huggingface dataset:
A polymer composition comprising: from about 1 wt. % to about 99 wt. % of a polyetherimide resin; from about 1 wt. % to about 70 wt. % of a crystalline polyester resin; from about 0.1 wt. % to about 50 wt. % of an inherently dissipative polymer; and from about 0.001 wt. % to about 10 wt. % of a transesterification inhibitor, wherein the polymer composition exhibits a surface resistivity of from 1 × 10 9 ohms to 9 × 10 10 ohms when measured in accordance with ASTM D257 and a volume resistivity of from 1 × 10 8 to 9 × 10 9 ohms·cm in accordance with ASTM D257, and wherein the combined weight percent value of all components does not exceed 100 wt. %, and all weight percent values are based on the total weight of the polymer composition. from about 1 wt. % to about 99 wt. % of a polyetherimide resin; from about 1 wt. % to about 70 wt. % of a crystalline polyester resin; from about 0.1 wt. % to about 50 wt. % of an inherently dissipative polymer; and from about 0.001 wt. % to about 10 wt. % of a transesterification inhibitor, wherein the polymer composition exhibits a surface resistivity of from 1 × 10 9 ohms to 9 × 10 10 ohms when measured in accordance with ASTM D257 and a volume resistivity of from 1 × 10 8 to 9 × 10 9 ohms·cm in accordance with ASTM D257, and wherein the combined weight percent value of all components does not exceed 100 wt. %, and all weight percent values are based on the total weight of the polymer composition.
A process for production of a protein of interest in a bacterial host organism comprising the steps of: a) providing a bacterial host organism having an inactivated chromosomal frr gene and carrying a helper plasmid, the helper plasmid comprising a functional frr gene and a marker gene, b) transforming the host organism with a vector comprising a gene for the protein of interest and a functional frr gene and no antibiotic resistance gene, c) culturing the transformed host organism obtained in b) under conditions allowing the expression of the gene of interest in the host organism and d) isolating the protein of interest, wherein the host organism is selected for the absence of the helper plasmid after transformation with the vector. a) providing a bacterial host organism having an inactivated chromosomal frr gene and carrying a helper plasmid, the helper plasmid comprising a functional frr gene and a marker gene, b) transforming the host organism with a vector comprising a gene for the protein of interest and a functional frr gene and no antibiotic resistance gene, c) culturing the transformed host organism obtained in b) under conditions allowing the expression of the gene of interest in the host organism and d) isolating the protein of interest,
Deoiler of a turbomachine comprising a hub provided with a sleeve to be mounted on a vent shaft of the turbomachine and a hub plate extending beyond the sleeve, and a cover (8, 8') with a cover plate (11, 11') and a cylindrically shaped spacer surrounding the sleeve, characterised in that the hub plate comprises a rim in which the spacer is engaged at one end, and the cover plate (11, 11') is engaged around the sleeve and retained in an elongation direction of the shaft by a first stop plate forming part of the sleeve, and without any element for securement to the hub.
A coating composition for application to the internal surface of a steel can to retard sulfide staining comprising a blend of: (a) one or more carboxylic acid group-containing polymers, (b) a dispersion of zinc oxide in a polysilicone resin. (a) one or more carboxylic acid group-containing polymers, (b) a dispersion of zinc oxide in a polysilicone resin.
A long sheet material holding device (42,43) comprising: a holding shaft configured to hold a long sheet material in a roll shape; a pair of first locking groove trains (91c,91d) arranged in parallel with each other along the axial direction of the holding shaft, the pair of first locking groove trains (91c,91d) having a series of grooves (61c,61d) respectively, each of the series of grooves (61c,61d) being provided with slope surfaces (71c,71d) sloped along the axial direction of the holding shaft and oppositely to each other and perpendicular surfaces (81c,81d) perpendicular to the axial direction of the holding shaft; a regulating member provided to allow the holding shaft to be inserted thereinto and to be movable along the axial direction of the holding shaft, the regulating member being configured to regulate a position of the long sheet material held by the holding shaft; and a pair of locking members (92x,92y) provided in the regulating member to match the pair of first locking groove trains (91c,91d), each of the locking members (92x,92y) having a second locking groove train (92c,92d), the second locking groove train (92c,92d) having a series of grooves (62c,62d), the series of grooves (62c,62d) having surfaces (72c,72d,82c,82d) to match the slope surfaces (71c,71d) and the perpendicular surfaces (81c,81d) of the grooves (61c,61d) of the first locking groove train (91c,91d), the second locking groove trains (92c,92d) being engaged with the first locking groove trains (91c,91d) to fix the regulating member to the holding shaft. a holding shaft configured to hold a long sheet material in a roll shape; a pair of first locking groove trains (91c,91d) arranged in parallel with each other along the axial direction of the holding shaft, the pair of first locking groove trains (91c,91d) having a series of grooves (61c,61d) respectively, each of the series of grooves (61c,61d) being provided with slope surfaces (71c,71d) sloped along the axial direction of the holding shaft and oppositely to each other and perpendicular surfaces (81c,81d) perpendicular to the axial direction of the holding shaft; a regulating member provided to allow the holding shaft to be inserted thereinto and to be movable along the axial direction of the holding shaft, the regulating member being configured to regulate a position of the long sheet material held by the holding shaft; and a pair of locking members (92x,92y) provided in the regulating member to match the pair of first locking groove trains (91c,91d), each of the locking members (92x,92y) having a second locking groove train (92c,92d), the second locking groove train (92c,92d) having a series of grooves (62c,62d), the series of grooves (62c,62d) having surfaces (72c,72d,82c,82d) to match the slope surfaces (71c,71d) and the perpendicular surfaces (81c,81d) of the grooves (61c,61d) of the first locking groove train (91c,91d), the second locking groove trains (92c,92d) being engaged with the first locking groove trains (91c,91d) to fix the regulating member to the holding shaft.
A method for preparing an aqueous nano-pigment dispersion comprising: mixing 2.5wt%∼40wt% styrene with polymerization inhibitors removed by evaporation, 2.5wt%∼20wt% acrylate monomer, 0.25wt%∼5wt% crosslinking monomer, 0.05wt%∼0.5wt% emulsification adjuvant, and 0.05wt%∼0.5wt% oil soluble initiator to form a mixture, and adding 0.25wt%∼2.5wt% organic pigments to be dispersed to the mixture to form an oil phase solution after dissolution; dissolving 0.05wt%∼2wt% emulsifier and 0.05wt%∼2wt% buffer in 40wt %∼90wt% deionized water to form an aqueous solution; mixing the oil phase solution and the aqueous phase solution and then homogenizing them into fine emulsion; and transferring the fine emulsion into a reactor; heating to increase the temperature to initiate the polymerization; after reacting, adding an alkaline soluble monomer; after continuing the reaction, cooling the temperature to the room temperature; adjusting pH to 8-10; and filtering to obtain the aqueous nano-pigment dispersion. mixing 2.5wt%∼40wt% styrene with polymerization inhibitors removed by evaporation, 2.5wt%∼20wt% acrylate monomer, 0.25wt%∼5wt% crosslinking monomer, 0.05wt%∼0.5wt% emulsification adjuvant, and 0.05wt%∼0.5wt% oil soluble initiator to form a mixture, and adding 0.25wt%∼2.5wt% organic pigments to be dispersed to the mixture to form an oil phase solution after dissolution; dissolving 0.05wt%∼2wt% emulsifier and 0.05wt%∼2wt% buffer in 40wt %∼90wt% deionized water to form an aqueous solution; mixing the oil phase solution and the aqueous phase solution and then homogenizing them into fine emulsion; and transferring the fine emulsion into a reactor; heating to increase the temperature to initiate the polymerization; after reacting, adding an alkaline soluble monomer; after continuing the reaction, cooling the temperature to the room temperature; adjusting pH to 8-10; and filtering to obtain the aqueous nano-pigment dispersion.
Method for operating a network node in a vehicle (VH, VH1), the method comprising the steps of: - in a first operation mode operating a first radio interface of said network node, wherein said first radio interface is a first transceiver unit, with a radio access technology of a radio communication network and as a radio interface of a mobile unit and operating a second radio interface of said network node, wherein said second radio interface is a second transceiver unit, with said radio access technology and as a radio interface of a base station of said radio communication network towards at least one mobile unit (MU1, MU2) located within the vehicle (VH, VH1), if said vehicle is operated by a vehicle driver, wherein first user data are transmitted in downlink and/or uplink direction between said at least one mobile unit (MU1, MU2) and a base station (BS1_1) of said radio communication network via a first local radio link between said at least one mobile unit (MU1, MU2) and said second radio interface of said network node and a global radio link between said first radio interface of said network node and said base station (BS1_1) of said radio communication network, so that the second radio interface provides a coverage area associated with said radio communication network for the mobile units (MU1, MU2) within the vehicle, and - in a second operating mode operating said first radio interface, or said first radio interface and said second radio interface, as a radio interface of a base station towards at least one mobile unit (MU3, MU4), if said vehicle is parked.
A carrier arm assembly for an operating unit of an agricultural machine, the carrier arm assembly including a carrier arm, a mounting structure for mounting the carrier arm on a carrier vehicle, a pivot mechanism that enables pivoting movement of the carrier arm relative to the mounting structure, a first actuator that drives pivoting movement of the carrier arm between a working position and a transport position, a suspension system for suspending an operating unit from the carrier arm, a second actuator for adjusting the height of the operating unit relative to the carrier arm, the carrier arm having a base part and an extending part that is telescopically adjustable relative to the base part to adjust the length of the carrier arm between an unextended configuration and an extended configuration and a third actuator that drives the extending part to adjust the length of the carrier arm, wherein the base part and the extending part both include a set of bearing surfaces that are configured to enable sliding movement of the extending part relative to the base part; the bearing surfaces of the base part include upper inclined bearing surfaces and lower inclined bearing surfaces, and the bearing surfaces of the extending part include upper inclined bearing surfaces and lower inclined bearing surfaces, which are configured to engage respectively the upper inclined bearing surfaces and the lower inclined bearing surfaces of the base part; characterised in that the upper and lower inclined bearing surfaces (120a, 120b, 122a, 122b) of the base part and the extending part are each inclined relative to the vertical at an angle in the range 40° to 50°.
A method for reducing electromagnetic waves in a mobile device that includes at least a first module and a second module having different functions, the method comprising: operating the first module at a first operating frequency; when there is a request for operating the second module while the first module is operated, changing the first operating frequency to a second operating frequency which is different from the first operating frequency; and operating the first module at the second operating frequency; wherein the operating of the first module at the first operating frequency comprises operating the first module using a Pulse Width Modulation, PWM, technique, and wherein the changing of the first operating frequency to the second charging frequency comprises modifying a pulse width. operating the first module at a first operating frequency; when there is a request for operating the second module while the first module is operated, changing the first operating frequency to a second operating frequency which is different from the first operating frequency; and operating the first module at the second operating frequency; wherein the operating of the first module at the first operating frequency comprises operating the first module using a Pulse Width Modulation, PWM, technique, and wherein the changing of the first operating frequency to the second charging frequency comprises modifying a pulse width.
A movement information measuring device for measuring movement information of a target object, the movement information measuring device comprising: a light source configured to emit light onto the target object; an image sensor comprising pixels and configured to capture an image of a speckle pattern generated by light emitted from the light source and reflected by the target object; and a processing device configured to obtain movement information of the target object based on a movement amount of the speckle pattern, and to adjust a frame rate and an exposure time in the image sensor, and light emission power of the light source based on a movement velocity derived from the movement information of the target object; wherein: the frame rate and light emission power are adjusted to be proportional to the movement velocity of the target object and the exposure time is adjusted to be inversely proportional to the movement velocity such that a relationship between a measurement error and a sub pixel movement amount can be fitted by a sine function; and the processing device is configured to correct the movement amount of the speckle pattern so that the measurement error is canceled out by reference to the sine function. a light source configured to emit light onto the target object; an image sensor comprising pixels and configured to capture an image of a speckle pattern generated by light emitted from the light source and reflected by the target object; and a processing device configured to obtain movement information of the target object based on a movement amount of the speckle pattern, and to adjust a frame rate and an exposure time in the image sensor, and light emission power of the light source based on a movement velocity derived from the movement information of the target object; wherein: the frame rate and light emission power are adjusted to be proportional to the movement velocity of the target object and the exposure time is adjusted to be inversely proportional to the movement velocity such that a relationship between a measurement error and a sub pixel movement amount can be fitted by a sine function; and the processing device is configured to correct the movement amount of the speckle pattern so that the measurement error is canceled out by reference to the sine function. the frame rate and light emission power are adjusted to be proportional to the movement velocity of the target object and the exposure time is adjusted to be inversely proportional to the movement velocity such that a relationship between a measurement error and a sub pixel movement amount can be fitted by a sine function; and the processing device is configured to correct the movement amount of the speckle pattern so that the measurement error is canceled out by reference to the sine function.
A method for ultrasonically evaluating damage to a laminate structure having a front-surface and a back-surface, the method comprising: calibrating a diagnostic device using an undamaged portion of the laminate structure to determine a plurality of calibration parameters in response to a transducer being pressed against the undamaged portion of the laminate structure and only a calibration button being pressed, wherein the calibration parameters include a return calibration pulse amplitude and a return calibration pulse timing; and performing one or more test cycles to a suspect portion of the laminate structure using the one or more of the calibration parameters in response to the transducer being pressed against the suspect portion of the laminate structure and an activation button being pressed, wherein the one or more test cycles includes transmitting a pulse into the laminate structure and sensing a plurality of test parameters, the test parameters including a return testing pulse amplitude and a return testing pulse timing; comparing the return calibration parameters to the test parameters; and activating a damage indicator in response to the comparison of the return calibration parameters to the test parameters being such that the data of the test cycle acceptably conforms with the data of the calibration cycle. calibrating a diagnostic device using an undamaged portion of the laminate structure to determine a plurality of calibration parameters in response to a transducer being pressed against the undamaged portion of the laminate structure and only a calibration button being pressed, wherein the calibration parameters include a return calibration pulse amplitude and a return calibration pulse timing; and performing one or more test cycles to a suspect portion of the laminate structure using the one or more of the calibration parameters in response to the transducer being pressed against the suspect portion of the laminate structure and an activation button being pressed, wherein the one or more test cycles includes transmitting a pulse into the laminate structure and sensing a plurality of test parameters, the test parameters including a return testing pulse amplitude and a return testing pulse timing; comparing the return calibration parameters to the test parameters; and activating a damage indicator in response to the comparison of the return calibration parameters to the test parameters being such that the data of the test cycle acceptably conforms with the data of the calibration cycle.
Connector system comprising: - an electrical device with at least one respective base, - at least one connector assembly having a first connector part and a second connector part, wherein the first connector part and the second connector part are adapted to connect with each other in a connection direction and, wherein the first connector part is associated with the respective base on which it mates, wherein the connector system comprises a first coding module, characterized in that the first coding module is arranged between the respective base of the electrical device and the first connector part, wherein the respective base and the first connector part comprise a plurality of first locations suitable to receive the first coding element, wherein the first coding module is configured to prevent the first connector part from mating with any other base than the respective base, wherein the first coding module comprises a plurality of first coding elements provided in some of the first locations of the respective base and of the first connector part to form a first coding key. - an electrical device with at least one respective base, - at least one connector assembly having a first connector part and a second connector part,
Bicycle frame (1, 100, 400) having an energy storage device (18, 102, 202, 302, 404), in particular a battery pack, and at least one frame section (16, 104, 200, 300, 402) that is embodied so as to mount the energy storage device (18, 102, 202, 302, 404) in a removable manner, wherein the frame section (16, 104, 200, 300, 402) that is embodied so as to mount the energy storage device (18, 102, 202, 302, 404) in a removable manner comprises an asymmetrical cross section in relation to a frame central plane (24, 106, 303, 403), characterised in that the frame section (16, 104, 200, 300, 402) comprises an at least in sections L-shaped cross section and that the cross section of the frame section (16, 104, 200, 300, 402) and the cross section of the energy storage device (18, 102, 202, 302, 404) complete an entire rectangular cross section.
A cutting assembly for cutting sheet material comprising a housing adapted to house a roll of the sheet material, a cutting surface including first and second surfaces having a slit there between, one of the surfaces being at an angle to the other, and a slidable cutting arm having a cutting edge for cutting the sheet material, the cutting edge being adapted to be received in and moved along the slit for cutting sheet material overlying the cutting surface, wherein the cutting surface includes a rigid polymer base and an elastomer surface, the elastomer surface of the first surface being a high friction gripping coating.
A household electric appliance (12-1, 12-2, 12-3, 13) comprising: a receiving unit (32, 34) adapted to receive a request for a peak cut of power consumption at a predetermined rate from a remote controller and a mobile terminal; a drive unit (41, 42) adapted to drive a power-consuming object to be driven; and a control unit (33a, 33b) adapted to control an action of the drive unit, wherein the control unit (33a, 33b), in the case of reception of the peak cut request from the remote controller or the mobile terminal, is adapted to control the action of the drive unit (41, 42) so as to cut a maximum value of the power consumption within the appliance based on the requested rate, characterized in that the household electric appliance (12-1, 12-2, 12-3, 13) further comprises: a detecting unit adapted to detect a current flowing through a predetermined current path within the appliance and to transmit the detected current value to the control unit (33a, 33b), wherein the control unit (33a, 33b) is adapted to compare the current value detected by the detecting unit and a current value set according to the predetermined rate requested by the remote controller or the mobile terminal and, if the current value detected by the detecting unit is greater than the current value set according to the predetermined rate, to control the drive unit to cut the maximum value of the power consumption within the appliance, according to the predetermined rate. a receiving unit (32, 34) adapted to receive a request for a peak cut of power consumption at a predetermined rate from a remote controller and a mobile terminal; a drive unit (41, 42) adapted to drive a power-consuming object to be driven; and a control unit (33a, 33b) adapted to control an action of the drive unit, wherein the control unit (33a, 33b), in the case of reception of the peak cut request from the remote controller or the mobile terminal, is adapted to control the action of the drive unit (41, 42) so as to cut a maximum value of the power consumption within the appliance based on the requested rate, a detecting unit adapted to detect a current flowing through a predetermined current path within the appliance and to transmit the detected current value to the control unit (33a, 33b), wherein the control unit (33a, 33b) is adapted to compare the current value detected by the detecting unit and a current value set according to the predetermined rate requested by the remote controller or the mobile terminal and, if the current value detected by the detecting unit is greater than the current value set according to the predetermined rate, to control the drive unit to cut the maximum value of the power consumption within the appliance, according to the predetermined rate.