mhurhangee/ep-ind-claims huggingface dataset:
A liquid discharge head comprising: an actuator wherein the actuator comprises of: a deformable thin-film member having an opening; an electromechanical conversion element which has an annular shape surrounding the opening of the deformable thin-film member; an insulating film covering the electromechanical conversion element; a protective film over a surface of the insulating film, the protective film covering the surface of the insulating film and a surface of an electrode wiring (116, 117) connected to the electromechanical conversion element, wherein the protective film is a resin film formed from benzocyclobutene; and an adhesion improving film disposed between the electrode wiring (116, 117) and the protective film, wherein the adhesion improving film is an SiO 2 film; and the liquid discharge head further comprises a liquid chamber communicating with the opening of the deformable thin-film member. a deformable thin-film member having an opening; an electromechanical conversion element which has an annular shape surrounding the opening of the deformable thin-film member; an insulating film covering the electromechanical conversion element; a protective film over a surface of the insulating film, the protective film covering the surface of the insulating film and a surface of an electrode wiring (116, 117) connected to the electromechanical conversion element, wherein the protective film is a resin film formed from benzocyclobutene; and an adhesion improving film disposed between the electrode wiring (116, 117) and the protective film, wherein the adhesion improving film is an SiO 2 film; and the liquid discharge head further comprises a liquid chamber communicating with the opening of the deformable thin-film member.
A composition in the form of a foam for topical application to the skin for use in the treatment of a skin disorder, said composition comprising a foamed mixture of a first solution comprising water, sodium or potassium nitrite, and a cationic surfactant and a foamed second solution comprising water, an acid selected from hydrochloric, lactic, citric or ascorbic acid and the cationic surfactant, said mixture producing in the resultant foam nitric oxide for transdermal absorption. a foamed mixture of a first solution comprising water, sodium or potassium nitrite, and a cationic surfactant and a foamed second solution comprising water, an acid selected from hydrochloric, lactic, citric or ascorbic acid and the cationic surfactant, said mixture producing in the resultant foam nitric oxide for transdermal absorption.
An organic light emitting device comprising: a substrate; a short circuit preventing layer provided on the substrate; a first electrode provided on the short circuit preventing layer, and including two or more conductive units provided to be separated from each other; a second electrode provided opposite to the first electrode; one or more organic material layers provided between the first electrode and the second electrode; and an auxiliary electrode provided either on the short circuit preventing layer, or between the short circuit preventing layer and the substrate, wherein the auxiliary electrode is disposed to be separated from the first electrode, wherein the short circuit preventing layer electrically connects the auxiliary electrode and the first electrode, and wherein the short circuit preventing layer has a sheet resistance of greater than or equal to 1 kΩ/□ and less than or equal to 1 MΩ/□, and wherein the short circuit preventing layer is formed as one continuous layer in a region on the substrate provided with the first electrode and the auxiliary electrode. a substrate; a short circuit preventing layer provided on the substrate; a first electrode provided on the short circuit preventing layer, and including two or more conductive units provided to be separated from each other; a second electrode provided opposite to the first electrode; one or more organic material layers provided between the first electrode and the second electrode; and an auxiliary electrode provided either on the short circuit preventing layer, or between the short circuit preventing layer and the substrate, wherein the auxiliary electrode is disposed to be separated from the first electrode, wherein the short circuit preventing layer electrically connects the auxiliary electrode and the first electrode, and wherein the short circuit preventing layer has a sheet resistance of greater than or equal to 1 kΩ/□ and less than or equal to 1 MΩ/□, and wherein the short circuit preventing layer is formed as one continuous layer in a region on the substrate provided with the first electrode and the auxiliary electrode.
A honeycomb structure comprising: a tubular honeycomb structure section including porous partition walls which partition and form a plurality of cells extending from one end surface to the other end surface to become through channels of a fluid, and an outer peripheral wall positioned in an outermost periphery; and a pair of electrode sections arranged on a side surface of the honeycomb structure section, wherein the electrical resistivity of the honeycomb structure section is from 1 to 200 Ω cm, each of the pair of electrode sections is formed into a band-like shape extending in a cell extending direction of the honeycomb structure section, one electrode section of the pair of electrode sections is disposed on an opposite side from the other electrode section of the pair of electrode sections via the center of the honeycomb structure section in a cross section which is perpendicular to the cell extending direction, an angle (α) which is 0.5 time as large as a central angle of each of the electrode sections is from 15 to 65° in the cross section which is perpendicular to the cell extending direction, each of the electrode sections is formed so as to become thinner from a center portion in a peripheral direction of the honeycomb structure section toward both ends in the peripheral direction in the cross section which is perpendicular to the cell extending direction, and the outer peripheral shape of the tubular honeycomb structure section combined with the pair of electrode sections is a circular shape in the cross section which is perpendicular to the cell extending direction.
A load cell assembly formed by a casting process and for use with an adjustable fifth wheel coupling system, wherein the adjustable fifth wheel coupling system has a first mounting portion with an adjustable track connectable to a towing vehicle and having a second mounting portion coupleable to a fifth wheel trailer, the load cell assembly comprising: a mounting plate portion having mounting features configured for slidably receiving and removably engaging the adjustment track of the first mounting portion; a load sensing portion integrally formed with and connected to the mounting plate portion, the load sensing portion having a flexure portion spaced apart from the mounting plate portion and defining a flexure gap therebetween that allows the load sensing portion to move relative to the mounting plate portion in response to a load on the load sensing portion, the load sensing portion having a sensor cavity machined therein above at least a portion of the flexure gap; a shaft mounting portion integrally formed with and connected to the load sensing portion above the flexure gap, the shaft mounting portion configured to pivotally receive a portion of the second mounting portion of the fifth wheel coupling system; and a load sensor connected to the load sensor portion and positioned within the sensor cavity above a portion of the flexure gap; wherein the mounting plate portion, the load sensing portion, and the shaft mounting portion define an integral, low-profile, weld-free, substantially homogenous unitary cast member into which the sensor cavity is machined and the load sensor is attached. a mounting plate portion having mounting features configured for slidably receiving and removably engaging the adjustment track of the first mounting portion; a load sensing portion integrally formed with and connected to the mounting plate portion, the load sensing portion having a flexure portion spaced apart from the mounting plate portion and defining a flexure gap therebetween that allows the load sensing portion to move relative to the mounting plate portion in response to a load on the load sensing portion, the load sensing portion having a sensor cavity machined therein above at least a portion of the flexure gap; a shaft mounting portion integrally formed with and connected to the load sensing portion above the flexure gap, the shaft mounting portion configured to pivotally receive a portion of the second mounting portion of the fifth wheel coupling system; and a load sensor connected to the load sensor portion and positioned within the sensor cavity above a portion of the flexure gap; wherein the mounting plate portion, the load sensing portion, and the shaft mounting portion define an integral, low-profile, weld-free, substantially homogenous unitary cast member into which the sensor cavity is machined and the load sensor is attached.
A method at a wireless intermediate network node of a mesh backhaul of a wireless mesh network, the method comprising the steps of: receiving, over a wireless link, a first data packet that includes data that indicates that the first data packet was transmitted by a first sending node that is outside the mesh backhaul, the first sending node being one of a wireless end node and a wireless rooftop access point connected by a wire to a wired subnetwork, the first data packet having been assigned a lower priority for its data type, wherein the lower priority of the first data packet is associated with first configured values for a first minimum wait interval and a first maximum wait interval for reducing contention for the wireless link according to the priority assigned thereto; converting the first data packet into a second data packet having a higher priority for the data type than the assigned priority of the first data packet; and transmitting over the wireless link the second data packet after a wait time based on the higher priority of the second data packet, the higher priority being associated with second configured values for a different second minimum wait interval and a different second maximum wait interval for reducing contention for the wireless link, wherein the first minimum wait interval is greater than the second minimum wait interval, and wherein the method further comprises: determining a maximum hop time for a data packet to hop to an adjacent intermediate network node in the wireless mesh network; and the second minimum wait interval is not less than the maximum hop time. receiving, over a wireless link, a first data packet that includes data that indicates that the first data packet was transmitted by a first sending node that is outside the mesh backhaul, the first sending node being one of a wireless end node and a wireless rooftop access point connected by a wire to a wired subnetwork, the first data packet having been assigned a lower priority for its data type, wherein the lower priority of the first data packet is associated with first configured values for a first minimum wait interval and a first maximum wait interval for reducing contention for the wireless link according to the priority assigned thereto; converting the first data packet into a second data packet having a higher priority for the data type than the assigned priority of the first data packet; and transmitting over the wireless link the second data packet after a wait time based on the higher priority of the second data packet, the higher priority being associated with second configured values for a different second minimum wait interval and a different second maximum wait interval for reducing contention for the wireless link, wherein the first minimum wait interval is greater than the second minimum wait interval, determining a maximum hop time for a data packet to hop to an adjacent intermediate network node in the wireless mesh network; and the second minimum wait interval is not less than the maximum hop time.
An apparatus configured to determine a large voltage value without a direct measurement, characterized in that the apparatus comprises: - a first voltage divider (108, 110) comprising a first large resistor exceeding a given threshold value and a first small resistor being less than the given threshold value; - a second voltage divider (109, 111) comprising a second large resistor exceeding the given threshold value and a second small resistor being less than the given threshold value; wherein the first large resistor, the second large resistor, the first small resistor, and the second small resistor form a resistor network; - via an inputted reference voltage in the input of the second voltage divider (109, 111), the apparatus is configured to measure a divided reference voltage over the second small resistor; - a processor configured to calculate a transfer ratio of the second voltage divider (109, 111) in a given ambient temperature, by dividing the second small resistor value by a sum of the second large resistor value and the second small resistor value; - the processor configured to assume the transfer ratio of the first voltage divider (108, 110) to be the same as the transfer ratio of the second voltage divider (109, 111), in the given ambient temperature; and - the processor configured to calculate the large voltage value from a first measured divided voltage value and the calculated transfer ratio, in the given ambient temperature, where the large voltage value is connected in an input of the first voltage divider (108, 110). - a first voltage divider (108, 110) comprising a first large resistor exceeding a given threshold value and a first small resistor being less than the given threshold value; - a second voltage divider (109, 111) comprising a second large resistor exceeding the given threshold value and a second small resistor being less than the given threshold value; - via an inputted reference voltage in the input of the second voltage divider (109, 111), the apparatus is configured to measure a divided reference voltage over the second small resistor; - a processor configured to calculate a transfer ratio of the second voltage divider (109, 111) in a given ambient temperature, by dividing the second small resistor value by a sum of the second large resistor value and the second small resistor value; - the processor configured to assume the transfer ratio of the first voltage divider (108, 110) to be the same as the transfer ratio of the second voltage divider (109, 111), in the given ambient temperature; and - the processor configured to calculate the large voltage value from a first measured divided voltage value and the calculated transfer ratio, in the given ambient temperature, where the large voltage value is connected in an input of the first voltage divider (108, 110).
Tensioning device of a strapping apparatus for the strapping of packaged articles with a strapping band, in particular with a plastics strapping band, which is equipped with a tensioning wheel which is operatively connected or operatively connectable to a drive device in order to set the tensioning wheel in a rotational movement about an axis of rotation, wherein the tensioning wheel is equipped with a which is designed for engaging into the strapping band, characterized in that, in the region of the circumferential surface of the tensioning wheel, there is provided on the tensioning wheel at least one movable spacer element which can be arranged in a first position and in a second position that differs from said first position, wherein, in the first position, the spacer element can - in relation to a circumferential direction of the tensioning wheel - be arranged at least in sections with a first spacing to the axis of rotation of the tensioning wheel and, in the second position, can be arranged with a second spacing, at least in sections, to the axis of rotation of the tensioning wheel, the first spacing differs here from the second spacing, and the spacer element, in at least one of the two positions, projects beyond the circumferential surface of the tensioning wheel.
A method for securely performing a sensitive operation using a non-secure user terminal, the method comprising: receiving and storing by the user terminal, software component data related to a set of a plurality of software components, each of the software components performing the sensitive operation and being protected against tampering and reverse-engineering; receiving by the user terminal, from a secure processor (ASRV, SE), an execution request to perform the sensitive operation; selecting, by the user terminal, one valid software component among the stored software components; executing, by the user terminal, the selected software component, the execution of the selected software component providing an output data; transmitting by the terminal to the secure processor, an identifier (GCID) of the executed software component and a response of the executed sensitive operation, depending on the output data, the sensitive operation being invalidated by the secure processor, when the received software component identifier corresponds to a software component set to invalid; and setting, by the user terminal, the executed software component to invalid. receiving and storing by the user terminal, software component data related to a set of a plurality of software components, each of the software components performing the sensitive operation and being protected against tampering and reverse-engineering; receiving by the user terminal, from a secure processor (ASRV, SE), an execution request to perform the sensitive operation; selecting, by the user terminal, one valid software component among the stored software components; executing, by the user terminal, the selected software component, the execution of the selected software component providing an output data; transmitting by the terminal to the secure processor, an identifier (GCID) of the executed software component and a response of the executed sensitive operation, depending on the output data, the sensitive operation being invalidated by the secure processor, when the received software component identifier corresponds to a software component set to invalid; and setting, by the user terminal, the executed software component to invalid.
A method by a user equipment, UE, configured to transmit packet data units, PDUs, by a first Radio Link Control, RLC, entity via a first uplink transmission path and/or by a second RLC entity via a second uplink transmission path, the method comprising: determining a total amount of data volume buffered for PDU transmission, wherein the total amount of data volume comprises Packet Data Convergence Protocol, PDCP, data volume and RLC data volume pending for initial transmission in the two RLC entities; reporting the PDCP data volume to at least the first uplink transmission path, based on whether the total amount of data volume meets or exceeds a first threshold, wherein the reporting comprises: in response to determining that the total amount of data volume meets or exceeds the first threshold, indicating the PDCP data volume to both the first uplink transmission path and the second uplink transmission path, and in response to determining that the total amount of data volume does not meet the first threshold, indicating the PDCP data volume to only the first uplink transmission path; and in response to determining that the total amount of data volume does not meet the first threshold, submitting the PDCP data volume only to the first RLC entity. determining a total amount of data volume buffered for PDU transmission, wherein the total amount of data volume comprises Packet Data Convergence Protocol, PDCP, data volume and RLC data volume pending for initial transmission in the two RLC entities; reporting the PDCP data volume to at least the first uplink transmission path, based on whether the total amount of data volume meets or exceeds a first threshold, wherein the reporting comprises: in response to determining that the total amount of data volume meets or exceeds the first threshold, indicating the PDCP data volume to both the first uplink transmission path and the second uplink transmission path, and in response to determining that the total amount of data volume does not meet the first threshold, indicating the PDCP data volume to only the first uplink transmission path; and in response to determining that the total amount of data volume meets or exceeds the first threshold, indicating the PDCP data volume to both the first uplink transmission path and the second uplink transmission path, and in response to determining that the total amount of data volume does not meet the first threshold, indicating the PDCP data volume to only the first uplink transmission path; and
An item of furniture including four front (18-1, 18-2) and back (18-3, 18-4) feet equipped with movement means, the back movement means being equipped with retractable manoeuvring means, the manoeuvring means including at least one wheel, carried by a shaft defining an axis XX' and mounted so as to be able to rotate freely, characterised in that the ends of said shaft carrying eccentrics each with a pin secured to the back legs (18-3, 18-4), define an axis YY' positioned towards the front with respect to the axis XX' so that said movement means can adopt a stable retracted position and an unstable projecting position.
LED luminaire, comprising: - an LED module having at least one LED, - an optical element for influencing the output of the light emitted from the least one LED, and - a light-guiding element for directing the light emitted from the at least one LED to the optical element, wherein the light-guiding element with the LED module surrounds a cavity, while the optical element is integrally formed in the light-guiding element, characterised in that the optical element is formed as a secondary optics, and the at least one LED of the LED module has a further optical element as the primary optics in order to direct the light onto the secondary optics, while the light-guiding element is formed as a tube, in particular, a transparent tube. - an LED module having at least one LED, - an optical element for influencing the output of the light emitted from the least one LED, and - a light-guiding element for directing the light emitted from the at least one LED to the optical element, wherein the light-guiding element with the LED module surrounds a cavity, while the optical element is integrally formed in the light-guiding element, characterised in that the optical element is formed as a secondary optics, and the at least one LED of the LED module has a further optical element as the primary optics in order to direct the light onto the secondary optics, while the light-guiding element is formed as a tube, in particular, a transparent tube.