mhurhangee/ep-ind-claims huggingface dataset:
A process for producing an ultrasonic polymer seal comprising: preparing a multilayer film comprising a backing layer and a seal layer, the seal layer comprising an ultrasonic sealable olefin-based polymer (USOP) having the following properties: (a) a heat of melting, ΔHm, less than 130 J/g, (b) a peak melting temperature, Tm, less than 125°C, (c) a storage modulus in shear (G') from 50 MPa to 500 MPa, and (d) a loss modulus in shear (G") greater than 10 MPa; contacting the seal layer of the multilayer film with a seal layer of a second multilayer film comprising a backing layer and a seal layer, the seal layer comprising an ultrasonic sealable olefin-based polymer (USOP) having the following properties: (a) a heat of melting, ΔHm, less than 130 J/g, (b) a peak melting temperature, Tm, less than 125°C, (c) a storage modulus in shear (G') from 50 MPa to 500 MPa, and (d) a loss modulus in shear (G") greater than 10 MPa; to form a seal area; subjecting the seal area to ultrasonic energy and a seal force from 2 N/mm to 6 N/mm; and forming an ultrasonic seal having a seal strength from 30 N/15 mm to 80 N/15 mm. preparing a multilayer film comprising a backing layer and a seal layer, the seal layer comprising an ultrasonic sealable olefin-based polymer (USOP) having the following properties: (a) a heat of melting, ΔHm, less than 130 J/g, (b) a peak melting temperature, Tm, less than 125°C, (c) a storage modulus in shear (G') from 50 MPa to 500 MPa, and (d) a loss modulus in shear (G") greater than 10 MPa; (a) a heat of melting, ΔHm, less than 130 J/g, (b) a peak melting temperature, Tm, less than 125°C, (c) a storage modulus in shear (G') from 50 MPa to 500 MPa, and (d) a loss modulus in shear (G") greater than 10 MPa; contacting the seal layer of the multilayer film with a seal layer of a second multilayer film comprising a backing layer and a seal layer, the seal layer comprising an ultrasonic sealable olefin-based polymer (USOP) having the following properties: (a) a heat of melting, ΔHm, less than 130 J/g, (b) a peak melting temperature, Tm, less than 125°C, (c) a storage modulus in shear (G') from 50 MPa to 500 MPa, and (d) a loss modulus in shear (G") greater than 10 MPa; (a) a heat of melting, ΔHm, less than 130 J/g, (b) a peak melting temperature, Tm, less than 125°C, (c) a storage modulus in shear (G') from 50 MPa to 500 MPa, and (d) a loss modulus in shear (G") greater than 10 MPa; to form a seal area; subjecting the seal area to ultrasonic energy and a seal force from 2 N/mm to 6 N/mm; and forming an ultrasonic seal having a seal strength from 30 N/15 mm to 80 N/15 mm.
A method of manufacturing electronic dies by separating a semiconductor wafer into the electronic dies, the method comprising: • forming a groove with a first depth in the semiconductor wafer with a first disk-shaped saw blade having a first thickness, the first thickness being a size along a rotation axis of the first disk-shaped saw blade; • enlarging the groove with a second depth by a second disk-shaped saw blade having a second thickness larger than the first thickness, the second thickness being a size along a rotation axis of the second disk-shaped saw blade, the second depth being larger than the first depth; • subsequently increasing a depth of the groove by a third disk-shaped saw blade having a third thickness smaller than the second thickness until the semiconductor wafer is separated, the third thickness being a size along a rotation axis of the third disk-shaped saw blade. • forming a groove with a first depth in the semiconductor wafer with a first disk-shaped saw blade having a first thickness, the first thickness being a size along a rotation axis of the first disk-shaped saw blade; • enlarging the groove with a second depth by a second disk-shaped saw blade having a second thickness larger than the first thickness, the second thickness being a size along a rotation axis of the second disk-shaped saw blade, the second depth being larger than the first depth; • subsequently increasing a depth of the groove by a third disk-shaped saw blade having a third thickness smaller than the second thickness until the semiconductor wafer is separated, the third thickness being a size along a rotation axis of the third disk-shaped saw blade.
A coating composition comprising (a) at least one binder having reactive groups, (b) at least one crosslinking agent which is able to react, with crosslinking with the reactive groups of the binder, and (c) at least one catalyst for the crosslinking of silane groups, one or more constituents and/or and/or at least one further constituent of the coating composition containing hydrolyzable silane groups, wherein the catalyst is a phosphoric acid compound, more particularly phosphoric acid or phosphonic acid, which is blocked with a bicyclic amine having a pK b ≥ 3 and a boiling point > 100°C and wherein the composition comprises as binder at least one hydroxyl-containing compound and as crosslinking agent at least one compound having free and/or blocked isocyanate groups. (a) at least one binder having reactive groups, (b) at least one crosslinking agent which is able to react, with crosslinking with the reactive groups of the binder, and (c) at least one catalyst for the crosslinking of silane groups, one or more constituents and/or and/or at least one further constituent of the coating composition containing hydrolyzable silane groups, wherein the catalyst is a phosphoric acid compound, more particularly phosphoric acid or phosphonic acid, which is blocked with a bicyclic amine having a pK b ≥ 3 and a boiling point > 100°C and wherein the composition comprises as binder at least one hydroxyl-containing compound and as crosslinking agent at least one compound having free and/or blocked isocyanate groups.
A method for producing pancreatic organoids capable of continuous culture, the method comprising the steps of: (a) isolating pancreatic tissue from a mouse, wherein the mouse is genetically modified by knockout of the telomerase RNA component (TERC) and by the deletion of exon 11 of the BRCA2 gene; (b) mixing cells isolated from the tissue with Matrigel, and culturing the mixed cells to form pre-organoids; (c) dissociating the pre-organoids with a mechanical stress of 50 to 500 Pa, and (d) re-culturing the dissociated organoids by repeated passaging. (a) isolating pancreatic tissue from a mouse, wherein the mouse is genetically modified by knockout of the telomerase RNA component (TERC) and by the deletion of exon 11 of the BRCA2 gene; (b) mixing cells isolated from the tissue with Matrigel, and culturing the mixed cells to form pre-organoids; (c) dissociating the pre-organoids with a mechanical stress of 50 to 500 Pa, and (d) re-culturing the dissociated organoids by repeated passaging.
Device for rolling dough, comprising: - A conveyor, in particular an endless conveyor belt, for conveying a dough sheet in a direction of conveyance; - A roller, for rolling the dough sheet with at least a directional component perpendicular to the direction of conveyance; characterized in that - The device is configured for varying the distance between the upper surface of the conveyor and the roller during rolling according to any predetermined distance pattern as a function of the position of the dough roller in a direction perpendicular to the direction of conveyance. - A conveyor, in particular an endless conveyor belt, for conveying a dough sheet in a direction of conveyance; - A roller, for rolling the dough sheet with at least a directional component perpendicular to the direction of conveyance; characterized in that - The device is configured for varying the distance between the upper surface of the conveyor and the roller during rolling according to any predetermined distance pattern as a function of the position of the dough roller in a direction perpendicular to the direction of conveyance.
A phase locked loop for providing phase locking of an output signal to a reference signal, the phase locked loop comprising: a phase detector configured for detecting a phase difference between a signal at a first input and a signal at a second input, a reference path configured for providing the reference signal to the first input of the phase detector, a feedback loop configured for providing the output signal of the phase locked loop as a feedback signal to the second input of the phase detector, a controllable oscillator configured for generating the output signal based at least on the phase difference between the reference signal and the feedback signal detected by the phase detector, the output signal having a period, a digital-to-time converter, DTC, configured for delaying a signal that is provided at one of the first input and the second input of the phase detector, and a delay calculation path in which a delay value for the DTC is calculated, characterized in that the phase locked loop further comprises a randomization unit configured for: generating an output stream of pseudo-random numbers representing a number of VCO periods, and adding the output stream of pseudo-random numbers in the delay calculation path, and in that the delay calculation path is configured for calculating the delay value by scaling a sum of an initial delay value and the output stream of pseudo-random numbers with the period of the output signal such that the target output of the phase detector remains substantially unchanged. a phase detector configured for detecting a phase difference between a signal at a first input and a signal at a second input, a reference path configured for providing the reference signal to the first input of the phase detector, a feedback loop configured for providing the output signal of the phase locked loop as a feedback signal to the second input of the phase detector, a controllable oscillator configured for generating the output signal based at least on the phase difference between the reference signal and the feedback signal detected by the phase detector, the output signal having a period, a digital-to-time converter, DTC, configured for delaying a signal that is provided at one of the first input and the second input of the phase detector, and a delay calculation path in which a delay value for the DTC is calculated, generating an output stream of pseudo-random numbers representing a number of VCO periods, and adding the output stream of pseudo-random numbers in the delay calculation path, and
A method of managing multiple channels in a single network of a cognitive radio system, the method performed by a network management device managing a master channel and performing control and management of the master channel by transmitting a master beacon to the master channel, and comprising: determining a new channel and at least one device to be operated on the new channel; determining whether to apply direct management for the new channel; in case of direct management, switching an operating channel from the master channel to the new channel, generating a branch beacon for performing control and management of the new channel, and transmitting the branch beacon on the new channel; receiving channel information from devices on the new channel that received the branch beacon; and switching the operating channel back to the master channel, and transmitting the master beacon; in case of no direct management, determining one of the at least one device to be operated on the new channel as a new channel managing device; and receiving new channel information from the new channel managing device that received the master beacon transmitted on the master channel after switching the operating channel from the new channel to the master channel. determining a new channel and at least one device to be operated on the new channel; determining whether to apply direct management for the new channel; in case of direct management, switching an operating channel from the master channel to the new channel, generating a branch beacon for performing control and management of the new channel, and transmitting the branch beacon on the new channel; receiving channel information from devices on the new channel that received the branch beacon; and switching the operating channel back to the master channel, and transmitting the master beacon; switching an operating channel from the master channel to the new channel, generating a branch beacon for performing control and management of the new channel, and transmitting the branch beacon on the new channel; receiving channel information from devices on the new channel that received the branch beacon; and switching the operating channel back to the master channel, and transmitting the master beacon; in case of no direct management, determining one of the at least one device to be operated on the new channel as a new channel managing device; and receiving new channel information from the new channel managing device that received the master beacon transmitted on the master channel after switching the operating channel from the new channel to the master channel. determining one of the at least one device to be operated on the new channel as a new channel managing device; and receiving new channel information from the new channel managing device that received the master beacon transmitted on the master channel after switching the operating channel from the new channel to the master channel.
A combination lock, comprising: a locking link; a fixed link; a chain or cable connecting the locking link and the fixed link; a housing configured to lockingly receive the locking link, wherein the fixed link is fixedly coupled to the housing; a plurality of outer dials; a plurality of inner dials, each of the inner dials being selectively coupled to a corresponding outer dial; a spindle movable in an axial direction and positioned radially internal to the inner dials; a multiplier link pivotably connected to the housing and engaged with the spindle; and a locking bolt having a slot configured to receive a portion of the multiplier link, wherein the locking bolt can be moved from a locked position to an unlocked position in response to the pivoting of the multiplier link, wherein a distance traveled by the locking bolt is greater than a distance traveled by the spindle, wherein movement of the bolt from the locked position to the unlocked position disengages the bolt from the locking link, thereby enabling removal of the locking link from the housing. a locking link; a fixed link; a chain or cable connecting the locking link and the fixed link; a housing configured to lockingly receive the locking link, wherein the fixed link is fixedly coupled to the housing; a plurality of outer dials; a plurality of inner dials, each of the inner dials being selectively coupled to a corresponding outer dial; a spindle movable in an axial direction and positioned radially internal to the inner dials; a multiplier link pivotably connected to the housing and engaged with the spindle; and a locking bolt having a slot configured to receive a portion of the multiplier link, wherein the locking bolt can be moved from a locked position to an unlocked position in response to the pivoting of the multiplier link, wherein a distance traveled by the locking bolt is greater than a distance traveled by the spindle, wherein movement of the bolt from the locked position to the unlocked position disengages the bolt from the locking link, thereby enabling removal of the locking link from the housing.
A communication system including a transmission apparatus and a reception apparatus, the transmission apparatus comprising: a buffer configured to hold first data to transmit; transmission means configured to transmit the first data to the reception apparatus by using User Datagram Protocol, UDP; reception means configured to receive second data that the reception apparatus returns; comparison means configured to compare the second data with the first data held by the buffer; and control means configured, when a result of the comparison by the comparison means is unmatch, to instruct the transmission means to retransmit the first data, wherein the control means also instructs the transmission means to retransmit the first data when time-out occurs without receiving the second data within a predetermined period, wherein, after retransmitting first data due to time-out, the transmission apparatus waits by performing backoff when time-out also occurs for the retransmission of the first data, and when further time-out occurs, the transmission apparatus checks a state of the reception apparatus by using Transmission Control Protocol, TCP. a buffer configured to hold first data to transmit; transmission means configured to transmit the first data to the reception apparatus by using User Datagram Protocol, UDP; reception means configured to receive second data that the reception apparatus returns; comparison means configured to compare the second data with the first data held by the buffer; and control means configured, when a result of the comparison by the comparison means is unmatch, to instruct the transmission means to retransmit the first data, wherein the control means also instructs the transmission means to retransmit the first data when time-out occurs without receiving the second data within a predetermined period, wherein, after retransmitting first data due to time-out, the transmission apparatus waits by performing backoff when time-out also occurs for the retransmission of the first data, and when further time-out occurs, the transmission apparatus checks a state of the reception apparatus by using Transmission Control Protocol, TCP.
A flexible seal for a turbine comprising: a spring component having a base section (99, 110) configured to be mounted to one of a static member and a moveable member of the turbine and a plurality of biasing members (100, 111), each of the plurality of biasing members (100, 111) having a first portion (103, 114) extending from the base section (99, 110) and a cantilevered portion (105, 116); and a seal component provided on the cantilevered portion (105, 116) of the plurality of biasing members (100, 111), the seal component comprising a braided rope, characterized in that the braided rope is arranged in a zigzag configuration, the zigzag configuration enabling the braided rope to expand and contract due to thermal expansions and contractions of the moveable member, the moveable member being a transition duct. a spring component having a base section (99, 110) configured to be mounted to one of a static member and a moveable member of the turbine and a plurality of biasing members (100, 111), each of the plurality of biasing members (100, 111) having a first portion (103, 114) extending from the base section (99, 110) and a cantilevered portion (105, 116); and a seal component provided on the cantilevered portion (105, 116) of the plurality of biasing members (100, 111), the seal component comprising a braided rope, characterized in that the braided rope is arranged in a zigzag configuration, the zigzag configuration enabling the braided rope to expand and contract due to thermal expansions and contractions of the moveable member, the moveable member being a transition duct.
Method for detecting at least one photovoltaic electricity production device in an electricity distribution network comprising at least one electrical installation and at least one current sensor, each installation comprising at least one electrical device and being connected to a respective distribution node by at least one respective electrical conductor, each sensor being associated with a respective electrical conductor, the method being characterised in that it comprises the following steps: i/ acquisition, by a current sensor, of a plurality of active power profiles of a corresponding installation, each active power profile comprising a plurality of active power measurements each associated with a respective time instant of a time range; ii/ calculation, for at least one pair of active power profiles, of a differential profile comprising a plurality of values, each value of the differential profile being equal to the difference between two respective measurements of the active power profiles of said pair; iii/ calculation of a correlation coefficient between the calculated differential profile or profiles and a reference profile corresponding to a photovoltaic electricity production; iv/ detection of the presence of a photovoltaic electricity production device among the electrical device or devices of the installation in question when the correlation coefficient is greater than a predefined value. i/ acquisition, by a current sensor, of a plurality of active power profiles of a corresponding installation, each active power profile comprising a plurality of active power measurements each associated with a respective time instant of a time range; ii/ calculation, for at least one pair of active power profiles, of a differential profile comprising a plurality of values, each value of the differential profile being equal to the difference between two respective measurements of the active power profiles of said pair; iii/ calculation of a correlation coefficient between the calculated differential profile or profiles and a reference profile corresponding to a photovoltaic electricity production; iv/ detection of the presence of a photovoltaic electricity production device among the electrical device or devices of the installation in question when the correlation coefficient is greater than a predefined value.
Battery, comprising - a multiplicity of battery cells, - a housing, the battery cells being arranged in the housing, and - at least one heat conduction strip which is arranged between the battery cells and makes contact with at least one of the battery cells by means of a contact region, - the heat conduction strip comprising a heat dissipation region which is set up for contact with a heat dissipating element. - a multiplicity of battery cells, - a housing, the battery cells being arranged in the housing, and - at least one heat conduction strip which is arranged between the battery cells and makes contact with at least one of the battery cells by means of a contact region, - the heat conduction strip comprising a heat dissipation region which is set up for contact with a heat dissipating element.
Method for generating signals for influencing the movement of a vehicle body, whose movement sequences can be open-loop or closed-loop controlled, of a motor vehicle, wherein the movement of the vehicle body is determined by sensor, the sensor signals corresponding to the determined sensor values are fed to a shock absorber controller, and the shock absorber controller supplies at least one control signal for actuating actuators, in particular semi-active or active shock absorbers, by means of which the movement of the vehicle body can be influenced, the sensor signals are pre-processed depending on a desired movement characteristic of the vehicle body and the pre-processed sensor signals are fed to the shock absorber controller, wherein non-control-relevant signal information and/or signal processing operations are filtered out, characterized in that a differentiator and/or an integrator and at least one filter (106, 108, 110, 206, 208, 210) or a combined differentiator filter and/or a combined integration filter is used, wherein the filters (106, 108, 110, 206, 208, 210) are designed in such a way that customer demands (for example with respect to comfort or sportiness) are also taken into account in the filter design, the filters (106, 108, 110, 206, 208, 210) with differentiator or integrator or the combined differentiator filters and/or integrator filters form signals, which, in definable frequencies, have phase shifts in the form of phase leads or phase lags with respect to the input signal.