mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine assembly, comprising: an aft engine cover structure (72, 74); a compartment that is accessible and removable via removal of the aft engine cover structure (72, 74); and a clutch configured to move from a first position to a second position in response to rotation of a gas turbine engine fan at a speed greater than a threshold speed, wherein, when the clutch is in the first position and when the clutch is in the second position, the clutch permits rotation of the gas turbine engine fan in a first direction (Di), wherein the clutch is disposed within the compartment, whereby the clutch is removable on-wing, characterised in that when the clutch is in the first position, the clutch blocks rotation of the gas turbine engine fan only in an opposite, second direction (D 2). an aft engine cover structure (72, 74); a compartment that is accessible and removable via removal of the aft engine cover structure (72, 74); and a clutch configured to move from a first position to a second position in response to rotation of a gas turbine engine fan at a speed greater than a threshold speed, wherein, when the clutch is in the first position and when the clutch is in the second position, the clutch permits rotation of the gas turbine engine fan in a first direction (Di), wherein the clutch is disposed within the compartment, whereby the clutch is removable on-wing, characterised in that when the clutch is in the first position, the clutch blocks rotation of the gas turbine engine fan only in an opposite, second direction (D 2).
A gear hobbing apparatus for producing a gear from a blank, the gear hobbing apparatus comprising: a hob having a cylindrical hob body, characterised by a first series of hob teeth extending from the cylindrical hob body and having a first whole depth; and a second series of hob teeth alternately extending from the cylindrical hob body with the first series of hob teeth and having a second whole depth, the first and second whole depths being distinct and configured to create a gear from the blank that has adjacent teeth having distinct outer diameters. a hob having a cylindrical hob body, characterised by a first series of hob teeth extending from the cylindrical hob body and having a first whole depth; and a second series of hob teeth alternately extending from the cylindrical hob body with the first series of hob teeth and having a second whole depth, the first and second whole depths being distinct and configured to create a gear from the blank that has adjacent teeth having distinct outer diameters.
An electronic device, comprising a middle frame and a camera module, wherein the middle frame comprises a frame portion and a support plate connected to the frame portion, an opening is disposed on the support plate, and the camera module is mounted on the middle frame and corresponds to the opening; the camera module comprises a lens assembly, a dimming conversion assembly and a protective cover, the dimming conversion assembly is disposed on an out-light side of the lens assembly, the protective cover wraps the dimming conversion assembly and the lens assembly, and the protective cover extends into the opening; an edge of the dimming conversion assembly comprises an inner concave portion, the inner concave portion is located on a side that is of the dimming conversion assembly and that is away from the lens assembly, and the inner concave portion occupies at least a part of the thickness of the dimming conversion assembly; and along the circumferential direction of the lens assembly, the protective cover comprises a recessed portion, the recessed portion is located corresponding to the inner concave portion; and an inner edge of the opening comprises a reinforcing portion, and the reinforcing portion extends into the recessed portion. the camera module comprises a lens assembly, a dimming conversion assembly and a protective cover, the dimming conversion assembly is disposed on an out-light side of the lens assembly, the protective cover wraps the dimming conversion assembly and the lens assembly, and the protective cover extends into the opening; an edge of the dimming conversion assembly comprises an inner concave portion, the inner concave portion is located on a side that is of the dimming conversion assembly and that is away from the lens assembly, and the inner concave portion occupies at least a part of the thickness of the dimming conversion assembly; and along the circumferential direction of the lens assembly, the protective cover comprises a recessed portion, the recessed portion is located corresponding to the inner concave portion; and an inner edge of the opening comprises a reinforcing portion, and the reinforcing portion extends into the recessed portion.
A process for the pretreatment of biomass comprising the following steps: a) heating the biomass to a temperature equal to or lower than 110°C in an exchanger H1; b) heating the biomass obtained in step a) to a temperature comprised between 150 and 175°C in a scraped surface exchanger H2 at a pressure comprised between 0,6-0,8 MPa (6-8 bar); c) thermal hydrolizing the biomass obtained in step b) at a temperature comprised between 150 and 175°C at a pressure comprised between 0,6-0,8 MPa (6-8 bar) in a mantainance area M1; d) cooling the thermal hydrolyzed biomass for the subsequent biological treatment thereof to a temperature of 60°C in a scraped surface exchanger H4 with cooled water coming from the exchanger H1 and is then cooled to a temperature of 40°C in an exchanger H5. a) heating the biomass to a temperature equal to or lower than 110°C in an exchanger H1; b) heating the biomass obtained in step a) to a temperature comprised between 150 and 175°C in a scraped surface exchanger H2 at a pressure comprised between 0,6-0,8 MPa (6-8 bar); c) thermal hydrolizing the biomass obtained in step b) at a temperature comprised between 150 and 175°C at a pressure comprised between 0,6-0,8 MPa (6-8 bar) in a mantainance area M1; d) cooling the thermal hydrolyzed biomass for the subsequent biological treatment thereof to a temperature of 60°C in a scraped surface exchanger H4 with cooled water coming from the exchanger H1 and is then cooled to a temperature of 40°C in an exchanger H5.
Device for wrapping containers along a transport path, in particular a plurality of containers arranged one over the other, with a film or a film segment, wherein the device comprises a wrapping unit as a film wrapping module, characterised in that the wrapping unit comprises a linear drive having a closed movement path (5.1), on which movement path movement elements circulate in a common direction, wherein at least one gripping element is arranged on each respective movement element, and wherein the linear drive is configured as an electromagnetic direct drive.
A device for measuring blood alcohol concentration comprising; a first body including a coupling recess into which a blood collection module is coupled and a heater for heating the coupled blood collection module, and a second body including a detection probe configured to penetrate the blood collection module, wherein the second body is hinged on the first body and is rotatable toward the coupling recess of the first body such that the detection probe penetrates the blood collection module for sucking the alcohol gas in the blood collection module, and an alcohol detection sensor configured to detect the alcohol concentration through the alcohol gas introduced through the detection probe. a first body including a coupling recess into which a blood collection module is coupled and a heater for heating the coupled blood collection module, and a second body including a detection probe configured to penetrate the blood collection module, wherein the second body is hinged on the first body and is rotatable toward the coupling recess of the first body such that the detection probe penetrates the blood collection module for sucking the alcohol gas in the blood collection module, and an alcohol detection sensor configured to detect the alcohol concentration through the alcohol gas introduced through the detection probe.
A computer processor-implemented four quadrant voltage limiter method that limits a commanded phase voltage to within a volt second capability of an inverter, the four quadrant voltage limiter computer processor-implemented method comprising: enforcing by a computer processor an upper limit for a q-axis voltage in a motoring operation, under a condition where the inverter is unable to generate a requested torque; and characterized in enforcing by the computer processor a lower limit for the q-axis voltage in a regeneration operation, the lower limit being below a nominal value necessary to maintain flux; and outputting a command by the computer processor to the inverter to enforce the upper limit and the lower limit for the q-axis voltage to limit the commanded phase voltage to within a volt second capability of the inverter. enforcing by a computer processor an upper limit for a q-axis voltage in a motoring operation, under a condition where the inverter is unable to generate a requested torque; and characterized in enforcing by the computer processor a lower limit for the q-axis voltage in a regeneration operation, the lower limit being below a nominal value necessary to maintain flux; and outputting a command by the computer processor to the inverter to enforce the upper limit and the lower limit for the q-axis voltage to limit the commanded phase voltage to within a volt second capability of the inverter.
Probe for use in a scanning probe microscopy device for measuring features on a surface of a substrate, the probe comprising a cantilever and a probe tip, the probe tip being located at a first end section of the cantilever, the cantilever having a second end section on an opposite side, and the cantilever having a longitudinal shape, wherein the cantilever is configured for bending in a Z-direction perpendicular to the surface of the substrate in use, wherein the cantilever comprises a neck section and a paddle section, wherein the probe tip is located on the paddle section, and wherein the neck section has a width and height in cross section thereof, wherein the neck section comprises a base part having a rectangular cross section, the probe characterised in that the cantilever at least across a length of the neck section comprises a ridge extending in a direction away from the base part, such that the base part and the ridge together define the width and height of the neck section, wherein the ridge and the base part have dimensions such that a vertical bending stiffness of the cantilever for bending in the Z-direction matches a lateral stiffness of the cantilever with respect to forces acting on the probe tip in a direction transverse to the Z-direction. wherein the cantilever comprises a neck section and a paddle section, wherein the probe tip is located on the paddle section, and wherein the neck section has a width and height in cross section thereof, wherein the neck section comprises a base part having a rectangular cross section, the probe characterised in that the cantilever at least across a length of the neck section comprises a ridge extending in a direction away from the base part, such that the base part and the ridge together define the width and height of the neck section, wherein the ridge and the base part have dimensions such that a vertical bending stiffness of the cantilever for bending in the Z-direction matches a lateral stiffness of the cantilever with respect to forces acting on the probe tip in a direction transverse to the Z-direction.
A core network, comprising: a flow control unit configured to switch a path of a data flow having a flow identifier and a flow priority from a handover source base station to a handover target base station, wherein the data flow is transferred from the handover source base station to the handover target base station via one of a plurality of tunnels set per access point name, APN, between the handover source base station and the handover target base station, and wherein data flows having different flow identifiers and different flow priorities are transferred within each one of the plurality of the tunnels; and an end marker generating unit configured to generate, for each one of the plurality of the tunnels, an end marker indicating transfer completion of the data flows transferred within the one of the plurality of the tunnels; wherein the core network is further configured to transmit the end marker to the handover source base station and, thereafter, to transmit the data flow to the handover target base station. a flow control unit configured to switch a path of a data flow having a flow identifier and a flow priority from a handover source base station to a handover target base station, wherein the data flow is transferred from the handover source base station to the handover target base station via one of a plurality of tunnels set per access point name, APN, between the handover source base station and the handover target base station, and wherein data flows having different flow identifiers and different flow priorities are transferred within each one of the plurality of the tunnels; and an end marker generating unit configured to generate, for each one of the plurality of the tunnels, an end marker indicating transfer completion of the data flows transferred within the one of the plurality of the tunnels; wherein the core network is further configured to transmit the end marker to the handover source base station and, thereafter, to transmit the data flow to the handover target base station.
Method for the evaluation of outflow volume flows of gases, on the basis of acoustic measurements with an ultrasonic sensor, whereby the frequencies of the outflow noises in the range of approximately 10 kHz to 100 kHz are recorded and evaluated, comprising the steps (i) leak detection; and (ii) leakage assessment, characterised in that for the leakage assessment the outflow volumes/time dV/dt are determined as a function of the frequency and amplitude weighting of the sound pressure level, wherein the time signals of the sound level are recorded at a reception angle between the ultrasonic sensor and the leakage axis at which the sound level is at its maximum; a spectrum calculation for the corresponding time segment from the signal with a given spectral resolution and averaging of a given number of individual spectra is performed; the spectral centre of gravity for the average spectrum is calculated; an effective leakage area Aa is assigned to the spectral centre of gravity via calibration curves; and the outflow volume/time dV/dt is calculated as follows: dV / dt = c ⋅ A a, wherein c is a constant, which is predetermined depending on the shape of the leakage and the constructive limitation of the propagation. (i) leak detection; and (ii) leakage assessment, characterised in that for the leakage assessment the outflow volumes/time dV/dt are determined as a function of the frequency and amplitude weighting of the sound pressure level, wherein the time signals of the sound level are recorded at a reception angle between the ultrasonic sensor and the leakage axis at which the sound level is at its maximum; a spectrum calculation for the corresponding time segment from the signal with a given spectral resolution and averaging of a given number of individual spectra is performed; the spectral centre of gravity for the average spectrum is calculated; an effective leakage area Aa is assigned to the spectral centre of gravity via calibration curves; and the outflow volume/time dV/dt is calculated as follows: dV / dt = c ⋅ A a, wherein c is a constant, which is predetermined depending on the shape of the leakage and the constructive limitation of the propagation.
A cardiovascular balloon catheter comprising: an outer tubular component having a proximal end and a distal end; an inner tubular component disposed coaxially within the outer tubular component, the inner tubular component having a proximal end and a distal end and including an inner layer and an outer layer; an inflatable balloon having a proximal waist and a distal waist, wherein the balloon is attached proximate the distal end of the outer tubular component at the proximal waist and the balloon is attached proximate the distal end of the inner tubular component at the distal waist; characterized in that a tie layer is disposed between the inner layer and the outer layer; and at least a portion of the inner tubular component includes a nanocomposite material comprising a matrix material and at least one plurality of nanoparticles; and the tie layer comprises nanoparticles. an outer tubular component having a proximal end and a distal end; an inner tubular component disposed coaxially within the outer tubular component, the inner tubular component having a proximal end and a distal end and including an inner layer and an outer layer; an inflatable balloon having a proximal waist and a distal waist, wherein the balloon is attached proximate the distal end of the outer tubular component at the proximal waist and the balloon is attached proximate the distal end of the inner tubular component at the distal waist; characterized in that a tie layer is disposed between the inner layer and the outer layer; and at least a portion of the inner tubular component includes a nanocomposite material comprising a matrix material and at least one plurality of nanoparticles; and the tie layer comprises nanoparticles.
A membrane-spanning nanopore, comprising: i. at least one scaffold polynucleotide strand; ii. a plurality of staple polynucleotide strands; and iii. at least one hydrophobically-modified polynucleotide strand, wherein the at least one hydrophobically-modified polynucleotide strand comprises a polynucleotide strand and a hydrophobic moiety; wherein each of the plurality of staple polynucleotide strands hybridises to the at least one scaffold polynucleotide strand to form the three-dimensional structure of the membrane-spanning nanopore, and wherein the at least one hydrophobically-modified polynucleotide strand hybridises to a portion of the at least one scaffold polynucleotide strand, the membrane-spanning nanopore defining a central channel with a minimum internal width of at least about 5 nm. i. at least one scaffold polynucleotide strand; ii. a plurality of staple polynucleotide strands; and iii. at least one hydrophobically-modified polynucleotide strand, wherein the at least one hydrophobically-modified polynucleotide strand comprises a polynucleotide strand and a hydrophobic moiety;
A method for estimating echoes in a communication channel using a digital signal, characterized in that - the signal used is converted to an intermediate frequency, non-demodulated signal, and - that the method comprises the following steps: - the spectrum of the signal of interest is calculated; - the quadratic module of the flat part of the frequency response of the digital signal is calculated; - the Inverse Fourier Transform (IFFT) of the quadratic module of the frequency response is performed and - rays and replicas according to an iterative algorithm are classified. - the signal used is converted to an intermediate frequency, non-demodulated signal, and - that the method comprises the following steps: - the spectrum of the signal of interest is calculated; - the quadratic module of the flat part of the frequency response of the digital signal is calculated; - the Inverse Fourier Transform (IFFT) of the quadratic module of the frequency response is performed and - rays and replicas according to an iterative algorithm are classified. - the spectrum of the signal of interest is calculated; - the quadratic module of the flat part of the frequency response of the digital signal is calculated; - the Inverse Fourier Transform (IFFT) of the quadratic module of the frequency response is performed and - rays and replicas according to an iterative algorithm are classified.
A seal cartridge comprising: a frame that houses one or more seals; and a top cap adapted to be coupled to the frame and that includes a main body and a latch ring, wherein the latch ring is grounded to the main body and has a latch located at an angular position around the circumference of the latch ring, wherein the latch extends distally from the latch ring and is configured to releasably couple the seal cartridge to a trocar, and characterised in that the latch ring is grounded to the main body at a first angular position around the circumference of the latch ring and the latch is located at a second angular position around the circumference of the latch ring angularly offset from the first angular position, such that applying a radial load on the latch while applying an opposing load to the main body causes the latch ring to flex in torsion at an intermediate portion that angularly interposes the first and second angular positions (316, 318), and causes the latch to rotate radially inward relative to the main body. a frame that houses one or more seals; and a top cap adapted to be coupled to the frame and that includes a main body and a latch ring, wherein the latch ring is grounded to the main body and has a latch located at an angular position around the circumference of the latch ring, wherein the latch extends distally from the latch ring and is configured to releasably couple the seal cartridge to a trocar, and characterised in that the latch ring is grounded to the main body at a first angular position around the circumference of the latch ring and the latch is located at a second angular position around the circumference of the latch ring angularly offset from the first angular position, such that applying a radial load on the latch while applying an opposing load to the main body causes the latch ring to flex in torsion at an intermediate portion that angularly interposes the first and second angular positions (316, 318), and causes the latch to rotate radially inward relative to the main body.