mhurhangee/ep-ind-claims huggingface dataset:
An egg belt, comprising a belt extending in a conveying direction for conveying eggs in a conveying direction and having a plurality of recesses or holes, the belt has one or more areas without recesses or holes, wherein one or both of the belt borders extending in the conveying direction is/are formed without recesses or holes, wherein the one or more areas without recesses or holes is to be understood to mean that in addition to webs separating individual recesses from each other, there are also larger regions of the belt which do not have recesses, characterized in that the recesses or holes are triangular in shape, so that an egg dips into such a triangular recess with a portion of its surface and is supported by the belt at three points, that is to say at one point per side of the triangle, wherein the triangular recesses or holes are arranged in two or more rows extending in the conveying direction and the triangular recesses in a row are separated from each other by webs which are oriented at an angle of 60° or 120° to the conveying direction. the belt has one or more areas without recesses or holes, wherein one or both of the belt borders extending in the conveying direction is/are formed without recesses or holes, wherein the one or more areas without recesses or holes is to be understood to mean that in addition to webs separating individual recesses from each other, there are also larger regions of the belt which do not have recesses, characterized in that the recesses or holes are triangular in shape, so that an egg dips into such a triangular recess with a portion of its surface and is supported by the belt at three points, that is to say at one point per side of the triangle, wherein the triangular recesses or holes are arranged in two or more rows extending in the conveying direction and the triangular recesses in a row are separated from each other by webs which are oriented at an angle of 60° or 120° to the conveying direction.
A composition for use in inhibiting proliferation of prostate cancer cells in a subject, which composition comprises -2-(1H-Benzo[d]imidazol-2-ylthio)-N'-(5-bromo-2-hydroxybenzylidene)propanehydrazide or an siRNA that specifically targets a gene encoding the sAC protein.
A composition comprising a reaction product of an amine component comprising at least one multifunctional amine of structure: wherein each R is independently H or CH 2 CH 2 CH 2 NH 2; R 1 is H, CH 3 CH 2 CH 2 N-, C1-C21 alkyl, or C1-C21 alkenyl; n is 2; and m is 1 or 2, with a fatty acid or ester component selected from the group consisting of a dimer fatty acid or ester component, a monofunctional fatty acid or ester component, and combinations thereof; wherein the composition is a liquid at an ambient temperature of 25°C and wherein the percentage of equivalents of monomeric fatty acids to total equivalents of fatty acids is at least 70%.
A method to determine compression of tissue material of a subject comprising the steps of: detecting a ballistic signal generated by the mechanical action of the heart of the subject and passing through the tissue material of the subject; measuring changes in frequency components of the ballistic signal with respect to reference frequency components of a reference ballistic signal measured from the subject when the tissue material is in an uncompressed state; determining a level of compression of the tissue material compared to an uncompressed state from the measured changes in the frequency components; and displaying the level of tissue compression. detecting a ballistic signal generated by the mechanical action of the heart of the subject and passing through the tissue material of the subject; measuring changes in frequency components of the ballistic signal with respect to reference frequency components of a reference ballistic signal measured from the subject when the tissue material is in an uncompressed state;
An inkjet cartridge comprising a printhead die including an integrated circuit to drive a plurality of fluid actuation devices, the integrated circuit comprising: an ID line; a first select line; a second select line; a plurality of first data lines (D1 1-3); a second data line a first memory element configured to be enabled in response to a first logic level on the first select line and first data on the plurality of first data lines (D1 1-3); and a second memory element configured to be enabled in response to second data on the second data line, a first logic level on the second select line and a first logic level on the ID line; a fluid actuation device configured to be enabled in response to a first logic level on the second select line and a second logic level on the ID line; and a fire line (FIRE) electrically coupled to the second memory element and the fluid actuation device; wherein the first memory element is accessed via the ID line with the first memory element enabled; wherein the second memory element is accessed via the fire line (FIRE) with the second memory element enabled; and wherein the fluid actuation device is activated via the fire line (FIRE) with the fluid actuation device enabled. an ID line; a first select line; a second select line; a plurality of first data lines (D1 1-3); a second data line a first memory element configured to be enabled in response to a first logic level on the first select line and first data on the plurality of first data lines (D1 1-3); and a second memory element configured to be enabled in response to second data on the second data line, a first logic level on the second select line and a first logic level on the ID line; a fluid actuation device configured to be enabled in response to a first logic level on the second select line and a second logic level on the ID line; and a fire line (FIRE) electrically coupled to the second memory element and the fluid actuation device; wherein the first memory element is accessed via the ID line with the first memory element enabled; wherein the second memory element is accessed via the fire line (FIRE) with the second memory element enabled; and wherein the fluid actuation device is activated via the fire line (FIRE) with the fluid actuation device enabled.
A method for operating a hearing instrument that is designed to support the hearing of an hearing-impaired user, the method comprising: - capturing a sound signal from an environment of the hearing instrument; - processing the captured sound signal to at least partially compensate the hearing-impairment of the user; - outputting the processed sound signal to the user; the method further comprising: - analyzing the captured sound signal to recognize speech intervals, in which the captured sound signal contains speech; characterised in: - determining, during recognized speech intervals, at least one time derivative (D1,D2) of an amplitude and/or a pitch of the captured sound signal; and - temporarily increasing the amplitude of the processed sound signal, if the at least one time derivative (D1,D2) fulfills a predefined criterion to enhance speech accents. - capturing a sound signal from an environment of the hearing instrument; - processing the captured sound signal to at least partially compensate the hearing-impairment of the user; - outputting the processed sound signal to the user; - analyzing the captured sound signal to recognize speech intervals, in which the captured sound signal contains speech; - determining, during recognized speech intervals, at least one time derivative (D1,D2) of an amplitude and/or a pitch of the captured sound signal; and - temporarily increasing the amplitude of the processed sound signal, if the at least one time derivative (D1,D2) fulfills a predefined criterion to enhance speech accents.
A coating comprising a number of layered structures, each such layered structure comprising - a first layer having a thickness t 1, said first layer comprising a diamond like nanocomposite layer comprising carbon, hydrogen, oxygen and silicon; - a second layer having a thickness t 2, said second layer comprising a diamond like carbon layer; wherein said number of layered structures is higher than 4, characterized in that said thickness t 2 is higher than said thickness t 1. - a first layer having a thickness t 1, said first layer comprising a diamond like nanocomposite layer comprising carbon, hydrogen, oxygen and silicon; - a second layer having a thickness t 2, said second layer comprising a diamond like carbon layer; wherein said number of layered structures is higher than 4, characterized in that said thickness t 2 is higher than said thickness t 1.
A method for determining a network quality of service, QoS, flow, comprising: receiving, by a session management function, a policy and charging control, PCC, rule from a policy control function, wherein the PCC rule comprises QoS parameters and wherein the QoS parameters comprise a standardized 5th generation quality of service identifier, 5QI, index value and a further QoS parameter, the standardized SQI index value indicates a set of standardized QoS parameters specified in a network protocol, each standardized QoS parameter includes an attribute and a corresponding value; and the further QoS parameter comprises at least one attribute from the set of standardized QoS parameters and a corresponding value of the at least one attribute that is dynamically determined by the policy control function; determining, by the session management function by using the SQI index value and the further QoS parameter, a QoS flow corresponding to the PCC rule; wherein QoS parameters of the QoS flow corresponding to the PCC rule matches both the SQI index value and the value of the further QoS parameter; and binding, by the session management function, the PCC rule to the QoS flow. receiving, by a session management function, a policy and charging control, PCC, rule from a policy control function, wherein the PCC rule comprises QoS parameters and wherein the QoS parameters comprise a standardized 5th generation quality of service identifier, 5QI, index value and a further QoS parameter, the standardized SQI index value indicates a set of standardized QoS parameters specified in a network protocol, each standardized QoS parameter includes an attribute and a corresponding value; and the further QoS parameter comprises at least one attribute from the set of standardized QoS parameters and a corresponding value of the at least one attribute that is dynamically determined by the policy control function; determining, by the session management function by using the SQI index value and the further QoS parameter, a QoS flow corresponding to the PCC rule; wherein QoS parameters of the QoS flow corresponding to the PCC rule matches both the SQI index value and the value of the further QoS parameter; and binding, by the session management function, the PCC rule to the QoS flow.
A display device having an outer frame and a display module disposed in the outer frame, wherein sides of the outer frame are provided with heat radiating outlets; the display module comprises a mounting frame, heat radiating structures corresponding to the heat radiating outlets are formed on the mounting frame such that the display module is cooled by virtue of heat exchange between outside air and the heat radiating structures, and the heat radiating structures communicate with the outside by virtue of the heat radiating outlets, and wherein at least parts of the heat radiating structures extend from the heat radiating outlets to an outer side of the outer frame characterized in that the heat radiating structures are hollow heat radiating pipelines, and two ends of the heat radiating pipelines are provided with openings communicating with inside the display device and outside air of the display device. wherein sides of the outer frame are provided with heat radiating outlets; the display module comprises a mounting frame, heat radiating structures corresponding to the heat radiating outlets are formed on the mounting frame such that the display module is cooled by virtue of heat exchange between outside air and the heat radiating structures, and the heat radiating structures communicate with the outside by virtue of the heat radiating outlets, and wherein at least parts of the heat radiating structures extend from the heat radiating outlets to an outer side of the outer frame characterized in that the heat radiating structures are hollow heat radiating pipelines, and two ends of the heat radiating pipelines are provided with openings communicating with inside the display device and outside air of the display device.
A method for facilitating deterministic data at an interface comprising: starting a link clock after a predetermined time after a common clock; initiating a counter based on the link clock; restarting the counter on every rising edge of the common clock for clock ratios with respect to the link clock to common clock; and adjusting a latency buffer output point in response to detecting a skip ordered set to match an entry that corresponds to the counter being equal to a value in a register. starting a link clock after a predetermined time after a common clock; initiating a counter based on the link clock; restarting the counter on every rising edge of the common clock for clock ratios with respect to the link clock to common clock; and adjusting a latency buffer output point in response to detecting a skip ordered set to match an entry that corresponds to the counter being equal to a value in a register.
A bridge cascade system comprising at least one phase unit and a driving unit for the phase unit, wherein: the phase unit comprises N bridge topologies cascaded on alternating current AC sides of the bridge topologies, where N is an integer greater than 1; characterized in that: the driving unit comprises one driving power supply circuit (Vcc), a plurality of bootstrap power supply circuits and 2N driving circuits (Dr1, Dr2, Dr3, Dr4); in the phase unit, the driving power supply circuit (Vcc) powers the driving circuits directly or through corresponding bootstrap power supply circuits; and the driving circuits are configured to provide driving signals for corresponding switch transistors in the phase unit. the phase unit comprises N bridge topologies cascaded on alternating current AC sides of the bridge topologies, where N is an integer greater than 1; characterized in that: the driving unit comprises one driving power supply circuit (Vcc), a plurality of bootstrap power supply circuits and 2N driving circuits (Dr1, Dr2, Dr3, Dr4); in the phase unit, the driving power supply circuit (Vcc) powers the driving circuits directly or through corresponding bootstrap power supply circuits; and the driving circuits are configured to provide driving signals for corresponding switch transistors in the phase unit. the driving unit comprises one driving power supply circuit (Vcc), a plurality of bootstrap power supply circuits and 2N driving circuits (Dr1, Dr2, Dr3, Dr4); in the phase unit, the driving power supply circuit (Vcc) powers the driving circuits directly or through corresponding bootstrap power supply circuits; and the driving circuits are configured to provide driving signals for corresponding switch transistors in the phase unit.
A composition comprising: a rubber; and an additive composition comprising: fluoropolymer; synergist; and fatty acid metal salt, wherein the synergist is at least one of i) silicone-polyether copolymers; ii) aliphatic polyesters such as poly(butylene adipate), poly(lactic acid) and polycaprolactone polyesters; iii) aromatic polyesters such as phthalic acid diisobutyl ester; iv) polyether polyols such as poly(tetramethylene ether glycol); v) amine oxides such as octyldimethyl amine oxide; vi) carboxylic acids such as hydroxy-butanedioic acid; vii) fatty acid esters such as sorbitan monolaurate and triglycerides; and vii) poly(oxyalkylene) polymers, wherein the composition is a master batch composition and wherein the additive composition is in the master batch composition in an amount up to 30 % by weight, based on the total weight of the composition. a rubber; and an additive composition comprising: fluoropolymer; synergist; and fatty acid metal salt, fluoropolymer; synergist; and fatty acid metal salt, wherein the synergist is at least one of i) silicone-polyether copolymers; ii) aliphatic polyesters such as poly(butylene adipate), poly(lactic acid) and polycaprolactone polyesters; iii) aromatic polyesters such as phthalic acid diisobutyl ester; iv) polyether polyols such as poly(tetramethylene ether glycol); v) amine oxides such as octyldimethyl amine oxide; vi) carboxylic acids such as hydroxy-butanedioic acid; vii) fatty acid esters such as sorbitan monolaurate and triglycerides; and vii) poly(oxyalkylene) polymers, wherein the composition is a master batch composition and wherein the additive composition is in the master batch composition in an amount up to 30 % by weight, based on the total weight of the composition.
A power conversion circuit comprising: a diode bridge having a pair of input ends for receiving an AC voltage (Vs), and a pair of output ends (111, 112) for outputting a direct current; a boost chopper circuit connected to said pair of output ends; a smoothing capacitor connected to an output side of said boost chopper circuit; an inverter receiving a voltage across said smoothing capacitor to output power for driving a load; and a leakage current reduction device for outputting a compensating current (Ic) for compensating, except near a zero crossing of said AC voltage, for a leakage current (Ia) leaking from said load; wherein said leakage current reduction device includes a leakage current detector for outputting a detection current (Ib) corresponding to said leakage current (Ia) from a difference between a pair of currents inputted to said diode bridge, and a compensating current output section having a pair of input ends (224, 225) and a compensating current output end for outputting said compensating current (Ic) in response to said detection current, said compensating current output end being connected to a location where the leakage current of said load leaks, characterized in that said pair of input ends (224, 225) of said compensating current output section is directly connected to said pair of output ends (111,112) of the diode bridge where the zero crossing of the AC voltage (Vs) is reflected, for direct supply of the varying rectified AC voltage to the pair of input ends (224, 225), respectively. a diode bridge having a pair of input ends for receiving an AC voltage (Vs), and a pair of output ends (111, 112) for outputting a direct current; a boost chopper circuit connected to said pair of output ends; a smoothing capacitor connected to an output side of said boost chopper circuit; an inverter receiving a voltage across said smoothing capacitor to output power for driving a load; and a leakage current reduction device for outputting a compensating current (Ic) for compensating, except near a zero crossing of said AC voltage, for a leakage current (Ia) leaking from said load; wherein said leakage current reduction device includes a leakage current detector for outputting a detection current (Ib) corresponding to said leakage current (Ia) from a difference between a pair of currents inputted to said diode bridge, and a compensating current output section having a pair of input ends (224, 225) and a compensating current output end for outputting said compensating current (Ic) in response to said detection current, said compensating current output end being connected to a location where the leakage current of said load leaks, characterized in that said pair of input ends (224, 225) of said compensating current output section is directly connected to said pair of output ends (111,112) of the diode bridge where the zero crossing of the AC voltage (Vs) is reflected, for direct supply of the varying rectified AC voltage to the pair of input ends (224, 225), respectively.
Method for calibrating a control algorithm of a clutch control unit (107, 310) of a vehicle, the method comprising requesting clutch (101, 301) engagement; monitoring clutch actuator position; determining a time interval that starts with said clutch (101, 301) engagement request and ends when said clutch actuator has reached a predetermined position, wherein said predetermined position corresponds to a position where the clutch (101, 301) torque transmission capacity starts to increase during clutch (101, 301) engagement; and calibrating an estimated time interval of the control algorithm starting with clutch (101, 301) engagement request and ending when the clutch actuator has reached said predetermined position based on said determined time interval. requesting clutch (101, 301) engagement; monitoring clutch actuator position; determining a time interval that starts with said clutch (101, 301) engagement request and ends when said clutch actuator has reached a predetermined position, wherein said predetermined position corresponds to a position where the clutch (101, 301) torque transmission capacity starts to increase during clutch (101, 301) engagement; and calibrating an estimated time interval of the control algorithm starting with clutch (101, 301) engagement request and ending when the clutch actuator has reached said predetermined position based on said determined time interval.
A dynamoelectric machine, comprising: a rotor having axially extending slots for receiving a plurality of concentrically arranged adjacent coils (22, 23) with axial cooling channels formed along the slots; a plurality of spaceblocks (40, 140) disposed between endwindings of the adjacent coils (22, 23) of the rotor winding for intercepting a circulating coolant flow (40, 140) through the axial cooling channels define at least a first cavity confined by the plurality of spaceblocks (40, 140) and mutually adjacent coils (22, 23); and wherein the plurality of spaceblocks (40, 140) each include a channel disposed in a coil facing surface of the spaceblock (40, 140) for redirecting the circulating coolant flow through the channel to the first cavity, characterized in that coolant is redirected from the first cavity to the first cavity at a different location by means of the channel projecting in a bended manner in the coil facing surface; further comprising at least one flow deflector structure disposed on at least one cavity facing surface of the spaceblock (40, 140) for intercepting and redirecting circulating coolant flow in the first cavity towards a central region of the first cavity. a rotor having axially extending slots for receiving a plurality of concentrically arranged adjacent coils (22, 23) with axial cooling channels formed along the slots; a plurality of spaceblocks (40, 140) disposed between endwindings of the adjacent coils (22, 23) of the rotor winding for intercepting a circulating coolant flow (40, 140) through the axial cooling channels define at least a first cavity confined by the plurality of spaceblocks (40, 140) and mutually adjacent coils (22, 23); and wherein the plurality of spaceblocks (40, 140) each include a channel disposed in a coil facing surface of the spaceblock (40, 140) for redirecting the circulating coolant flow through the channel to the first cavity, characterized in that coolant is redirected from the first cavity to the first cavity at a different location by means of the channel projecting in a bended manner in the coil facing surface; further comprising at least one flow deflector structure disposed on at least one cavity facing surface of the spaceblock (40, 140) for intercepting and redirecting circulating coolant flow in the first cavity towards a central region of the first cavity.