mhurhangee/ep-ind-claims huggingface dataset:
A process for grafting silane or silicone functionality onto a polyolefin, comprising reacting the polyolefin with an unsaturated monomer containing an olefinic -C=C- bond or acetylenic -C≡C- bond and a reactive functional group X and generating free radical site in the polyolefin by means of a compound capable of generating free radical sites in the polyolefin, or application of shear, heat or irradiation; and with an organosilicon compound having a functional group Y which is reactive with the functional group X of the unsaturated monomer, characterized in that the functional group Y is an amino-, an epoxide, or an isocyanate group, and unsaturated monomer contains an aromatic ring or a further olefinic double bond or acetylenic unsaturation, the aromatic ring or the further olefinic double bond or acetylenic unsaturation being conjugated with the olefinic -C=C- or acetylenic -C≡C- unsaturation of the unsaturated monomer, wherein the unsaturated monomer is 4-vinylaniline and the silicon compound contains an epoxide or isocyanate group; or the unsaturated monomer is 2-methoxy-4-vinylphenol and the silicon compound contains an isocyanate group; or wherein the unsaturated monomer contains an electron-withdrawing moiety with respect to the olefinic -C=C- or acetylenic -C≡C- bond; and wherein the unsaturated monomer is sorbaldehyde and the organosilicon compound contains an aminoalkyl group or the unsaturated monomer is glycidyl sorbate and the organosilicon compound contains an aminoalkyl group.
A method for formation testing comprising: establishing control parameters and a test criterion for testing a formation; providing a formation tester with multiple probes, the formation tester equipped with the control parameters and the test criterion in a well bore at a test location; performing a first formation test using the multiple probes; controlling the first formation test using the control parameters and the test criterion; collecting test data from the first formation test; adjusting the control parameters using the test data; performing a subsequent formation test using a first probe; collecting additional test data from the subsequent formation test; combining the test data and additional test data obtained from the first formation test and subsequent formation test to determine new control parameters for performing a further formation test using a second probe; re-adjusting the control parameters to the new control parameters after the subsequent formation test; and using the new control parameters for a further formation test using the second probe. establishing control parameters and a test criterion for testing a formation; providing a formation tester with multiple probes, the formation tester equipped with the control parameters and the test criterion in a well bore at a test location; performing a first formation test using the multiple probes; controlling the first formation test using the control parameters and the test criterion; collecting test data from the first formation test; adjusting the control parameters using the test data; performing a subsequent formation test using a first probe; collecting additional test data from the subsequent formation test; combining the test data and additional test data obtained from the first formation test and subsequent formation test to determine new control parameters for performing a further formation test using a second probe; re-adjusting the control parameters to the new control parameters after the subsequent formation test; and using the new control parameters for a further formation test using the second probe.
Toolholder comprising a main body having an accommodating opening for accommodating a screw-in tool, having an internal thread, which is arranged in the accommodating opening and is intended for retaining interaction with an external thread on the screw-in tool, and having a supply channel, which is arranged in the main body and opens out in the accommodating opening in an exit region, wherein the accommodating opening contains, in the exit region, a seal (4; 4'; 4") provided with at least one through-passage channel, and wherein the seal (4; 4'; 4") is arranged in an aperture (18; 18'; 18") in the main body in the exit region of the supply channel, characterized in that, going in the direction from the accommodating opening to the supply channel, the aperture (18; 18'; 18") increases in size.
A light grid comprising at least one light grid housing which has at least one elongate base part (20a, 20b) which extends in a longitudinal direction of the light grid housing and which comprises two side walls, which extend in the longitudinal direction and which are laterally spaced apart from one another, and a front wall which extends between the side walls, wherein the front wall has a plurality of light passage openings; wherein the light passage openings are arranged in two rows which are laterally spaced apart from one another and which extend in the longitudinal direction; and wherein only light transmitters or only light receivers are arranged in a respective light grid housing, characterized in that the light transmitters or light receivers are only associated with one of the two rows of light passage openings and the other row of light passage openings is not used.
A method for predicting a benefit from inclusion of taxane in a chemotherapy regimen, including adjuvant and/or neoadjuvant chemotherapy, in a patient suffering from or at risk of developing recurrent neoplastic disease, in particular breast cancer, said method comprising the steps of: a) determining in a tumor sample from said patient the expression levels of the marker genes S100P and PCSK6, and b) mathematically combining the expression level values of the genes PCSK6 and S100P to yield a combined score and comparing said combined score to a reference-value, including a cutoff, wherein a high combined score is indicative of a benefit from including a taxane in a chemotherapy regimen of said patient and a low combined score is indicative of not having a benefit from including a taxane in a chemotherapy regimen of said patient or c) mathematically combining the expression level values of PCSK6 and S100P with the expression values of one or more of the genes AKR1C3, MAP4, SPP1, CXCL9, PTGER3 or VEGFC to yield a combined score and comparing said combined score to a reference-value, including a cutoff, wherein a high combined score is indicative of a benefit from including a taxane in a chemotherapy regimen of said patient and a low combined score is indicative of not having a benefit from including a taxane in a chemotherapy regimen of said patient. a) determining in a tumor sample from said patient the expression levels of the marker genes S100P and PCSK6, and b) mathematically combining the expression level values of the genes PCSK6 and S100P to yield a combined score and comparing said combined score to a reference-value, including a cutoff, wherein a high combined score is indicative of a benefit from including a taxane in a chemotherapy regimen of said patient and a low combined score is indicative of not having a benefit from including a taxane in a chemotherapy regimen of said patient or c) mathematically combining the expression level values of PCSK6 and S100P with the expression values of one or more of the genes AKR1C3, MAP4, SPP1, CXCL9, PTGER3 or VEGFC to yield a combined score and comparing said combined score to a reference-value, including a cutoff, wherein a high combined score is indicative of a benefit from including a taxane in a chemotherapy regimen of said patient and a low combined score is indicative of not having a benefit from including a taxane in a chemotherapy regimen of said patient.
A power supply system for supplying power to a load, the system comprising: a voltage converter for producing a desired voltage; first and second vitality monitoring circuits for monitoring the voltage produced by said voltage converter and produce respective reference voltages; a control system comprising two or more processing units operably connected to the vitality monitoring circuits, the control system being operable to determine a vitality of the converter based on reference voltages from the vitality monitoring circuits and further operable to shut down the power being supplied to the load based on a determination to shut down the power from at least two of the processing units, characterized in that said first vitality monitoring circuit comprises two or more circuit branches, each branch comprising one or more switches each having an opened and a closed setting and one or more resistors, in that further, the respective reference voltage from said first vitality monitoring circuit is controlled by the settings of the switches, and in that each of the switches of the first vitality monitoring circuit is identical and the settings of the switches are controlled by respective inputs from at least two of the processing units. a voltage converter for producing a desired voltage; first and second vitality monitoring circuits for monitoring the voltage produced by said voltage converter and produce respective reference voltages; a control system comprising two or more processing units operably connected to the vitality monitoring circuits, the control system being operable to determine a vitality of the converter based on reference voltages from the vitality monitoring circuits and further operable to shut down the power being supplied to the load based on a determination to shut down the power from at least two of the processing units, characterized in that said first vitality monitoring circuit comprises two or more circuit branches, each branch comprising one or more switches each having an opened and a closed setting and one or more resistors, in that further, the respective reference voltage from said first vitality monitoring circuit is controlled by the settings of the switches, and in that each of the switches of the first vitality monitoring circuit is identical and the settings of the switches are controlled by respective inputs from at least two of the processing units.
Emergency actuating device, comprising: - a support base; - a manual actuation element associated with the support base and adapted to assume, relative to the support base, a first and a second configuration, respectively of rest and actuation; - a protective shell associated with the support base and adapted to assume, relative to the support base, a first and a second configuration, i.e. respectively a rest or closed configuration in which said shell isolates at least partially the actuation element from the outer environment when the actuation element is in its rest configuration, and makes it impossible to reach the actuation element with a hand, and an operational or open configuration, in which the actuation element can be reached with a hand in order to be brought from the rest configuration to the actuation configuration and vice versa; characterized in that it further comprises: - an electromagnetically driven locking mechanism adapted to lock the actuation element in its rest configuration, thus preventing said actuation element from assuming the actuation configuration; - an opening sensor adapted to generate an electric signal indicative of the open configuration of the protective shell, said signal being processable by an electronic control unit for controlling locking and/or unlocking of the locking mechanism. - a support base; - a manual actuation element associated with the support base and adapted to assume, relative to the support base, a first and a second configuration, respectively of rest and actuation; - a protective shell associated with the support base and adapted to assume, relative to the support base, a first and a second configuration, i.e. respectively a rest or closed configuration in which said shell isolates at least partially the actuation element from the outer environment when the actuation element is in its rest configuration, and makes it impossible to reach the actuation element with a hand, and an operational or open configuration, in which the actuation element can be reached with a hand in order to be brought from the rest configuration to the actuation configuration and vice versa; - an electromagnetically driven locking mechanism adapted to lock the actuation element in its rest configuration, thus preventing said actuation element from assuming the actuation configuration; - an opening sensor adapted to generate an electric signal indicative of the open configuration of the protective shell, said signal being processable by an electronic control unit for controlling locking and/or unlocking of the locking mechanism.
Device for dispensing artificial eyelashes, comprising a housing, a carrier strip or a wire, on which is fastened a plurality of artificial eyelashes, and a movement mechanism able to be actuated to cause a movement of the carrier strip or of the wire in order to convey the artificial eyelashes to a space outside of the housing, characterised in that said device is provided with a refill designed to be assembled to the housing in a removable manner, said refill comprising a plate, said carrier strip or said wire and the movement mechanism, said carrier strip or said wire and the movement mechanism being mounted on said plate.
A power control system for controlling reverse power feeding of a network node from a plural number of customer premises equipment, CPE, devices; the number of CPE devices being subject to power delivery conditions; wherein the network node comprises a power consuming system and an energy storage device; wherein the power control system comprises: - a charger power converter configured for directing power from the number of CPE devices to the energy storage device; - a discharger power converter configured for directing power from the energy storage device to the power consuming system; and - characterized by a controller configured for: - receiving a first input indicating greatest power drawn from the number of CPE devices; - receiving a second input indicating operating power for the power consuming system; - receiving a third input indicating available energy in the energy storage device; and - based on the received first, second and third inputs, controlling at least one of the charger power converter and the discharger power converter. - a charger power converter configured for directing power from the number of CPE devices to the energy storage device; - a discharger power converter configured for directing power from the energy storage device to the power consuming system; and - characterized by a controller configured for: - receiving a first input indicating greatest power drawn from the number of CPE devices; - receiving a second input indicating operating power for the power consuming system; - receiving a third input indicating available energy in the energy storage device; and - based on the received first, second and third inputs, controlling at least one of the charger power converter and the discharger power converter. - receiving a first input indicating greatest power drawn from the number of CPE devices; - receiving a second input indicating operating power for the power consuming system; - receiving a third input indicating available energy in the energy storage device; and - based on the received first, second and third inputs, controlling at least one of the charger power converter and the discharger power converter.
An ultrasonic transducer probe and system comprising: an array of transducer elements configured as a plurality of adjacent patches (12a,12b,12c,12d,12e) of transducer elements; a microbeamformer coupled to the transducer elements of the matrix array comprising: a plurality of controllable delays (DL1,DL2,DL3) coupled to elements of the array to produce delayed echo signals; a plurality of controllable switches coupled to direct delayed echo signals to a summing node of a given patch, or to a summing node (72, 76) of a patch adjacent to the given patch; and a microbeamformer output (34, 82, 84, 86) coupled from each summing node ( ∑, 72, 74, 76); and a system beamformer having a plurality of channels, each channel being coupled to receive a partial beamsum signal from a microbeamformer output, characterized in that the array of transducer elements is operable to transmit a beam centered on the given patch; wherein a first plurality of controllable switches are controlled to direct signals from elements on a first side of the beam center to the summing node of the given patch; wherein a second plurality of controllable switches are controlled to direct signals from elements on a second side of the beam center to the summing node of an adjacent patch; and wherein the system beamformer is configured to process beamsum signals received from patches to form multiline signals. an array of transducer elements configured as a plurality of adjacent patches (12a,12b,12c,12d,12e) of transducer elements; a microbeamformer coupled to the transducer elements of the matrix array comprising: a plurality of controllable delays (DL1,DL2,DL3) coupled to elements of the array to produce delayed echo signals; a plurality of controllable switches coupled to direct delayed echo signals to a summing node of a given patch, or to a summing node (72, 76) of a patch adjacent to the given patch; and a microbeamformer output (34, 82, 84, 86) coupled from each summing node ( ∑, 72, 74, 76); and a plurality of controllable delays (DL1,DL2,DL3) coupled to elements of the array to produce delayed echo signals; a plurality of controllable switches coupled to direct delayed echo signals to a summing node of a given patch, or to a summing node (72, 76) of a patch adjacent to the given patch; and a microbeamformer output (34, 82, 84, 86) coupled from each summing node ( ∑, 72, 74, 76); and a system beamformer having a plurality of channels, each channel being coupled to receive a partial beamsum signal from a microbeamformer output, characterized in that the array of transducer elements is operable to transmit a beam centered on the given patch;
A filling chute output for supplying fiber flocks from a filling chute into a feed duct of a card, having an opening roller with an axle and an axial working length, having a feed roller upstream from the opening roller and having an air supply which has a fan and an air supply duct, wherein the air supply duct has a cross section with a width that increases in the direction of the axis of the opening roller and a height perpendicular to the width, characterized in that the air supply duct consists of a first part and a second part, wherein the second part is arranged tangentially to the opening roller at least in part, with a longitudinal extent from the first part in the direction of an end opposite the first part, and at least up a plane of the opening roller passing through the axis of the opening roller and perpendicular to a lower wall opposite the opening roller or beyond that.
Tool, comprising: - a tool body that is suitable for being mounted on a machine for machining panels for rotating around an own axis, wherein said body comprises a first tool part and a second tool part; - cutting elements (10, 12; 10, 12, 25) arranged on the periphery of said first tool part and of said second tool part for removing parts (3, 4; 3, 4, 23, 3, 4) of a panel to be cut, wherein said cutting elements (10, 12; 10, 12, 25) are arranged in peripheral crowns spaced apart from one another along said axis for removing parts of laminar elements (3, 4; 3, 4, 23, 3, 4) of a panel to be machined; and - a non-cutting pressing element (13; 26, 27) interposed between at least two consecutive crowns along said axis for compressing a peripheral part of an internal honeycomb structure of said panel; wherein said non-cutting pressing element (13; 26, 27), said first tool part and said second tool part are splined on a same hub; characterised in that said pressing element (13; 26, 27) has a diameter substantially corresponding to, or greater than, the diameter of said first tool part and of said second tool part. - a tool body that is suitable for being mounted on a machine for machining panels for rotating around an own axis, wherein said body comprises a first tool part and a second tool part; - cutting elements (10, 12; 10, 12, 25) arranged on the periphery of said first tool part and of said second tool part for removing parts (3, 4; 3, 4, 23, 3, 4) of a panel to be cut, wherein said cutting elements (10, 12; 10, 12, 25) are arranged in peripheral crowns spaced apart from one another along said axis for removing parts of laminar elements (3, 4; 3, 4, 23, 3, 4) of a panel to be machined; and - a non-cutting pressing element (13; 26, 27) interposed between at least two consecutive crowns along said axis for compressing a peripheral part of an internal honeycomb structure of said panel;
A first controller (90, 151, 221), wherein the first controller comprises: a first obtaining unit, configured to obtain an identifier of a user and an identifier of a first gateway of a network accessed by the user; a second obtaining unit, configured to obtain service information according to the identifier of the user and a prestored second correspondence, wherein the service information is information about a service subscribed by the user and the second correspondence comprises the service information and the identifier of the user; a first sending unit, configured to send a first request to a second controller (11, 152, 222), wherein the first request comprises the service information, and the first request instructs the second controller to generate a virtualized network function, VNF, corresponding to the service information; a first receiving unit, configured to receive a first response sent by the second controller (11, 152, 222), wherein the first response comprises an identifier of a transport network, and the identifier of the transport network identifies a transport network that is in a data center, DC, and that is allocated to the user; and a second sending unit, configured to send a second request to a third controller (153, 223), wherein the second request comprises the identifier of the user, the identifier of the first gateway, and the identifier of the transport network, the second request instructs the third controller to configure a path used to transmit data, and the data is to be sent by the user to the VNF corresponding to the service information. a first obtaining unit, configured to obtain an identifier of a user and an identifier of a first gateway of a network accessed by the user; a second obtaining unit, configured to obtain service information according to the identifier of the user and a prestored second correspondence, wherein the service information is information about a service subscribed by the user and the second correspondence comprises the service information and the identifier of the user; a first sending unit, configured to send a first request to a second controller (11, 152, 222), wherein the first request comprises the service information, and the first request instructs the second controller to generate a virtualized network function, VNF, corresponding to the service information; a first receiving unit, configured to receive a first response sent by the second controller (11, 152, 222), wherein the first response comprises an identifier of a transport network, and the identifier of the transport network identifies a transport network that is in a data center, DC, and that is allocated to the user; and a second sending unit, configured to send a second request to a third controller (153, 223), wherein the second request comprises the identifier of the user, the identifier of the first gateway, and the identifier of the transport network, the second request instructs the third controller to configure a path used to transmit data, and the data is to be sent by the user to the VNF corresponding to the service information.