mhurhangee/ep-ind-claims huggingface dataset:
A cartridge case configured to support a liquid container containing a liquid and having a spout, the cartridge case comprising: a case including a first face and an end portion, the first face extending in a first direction and an orthogonal direction orthogonal to the first direction and parallel to first face, the end portion being provided at an end portion side of the first face in the first direction; a spout support portion provided at the end portion of the case, and configured to support the spout of the liquid container; an elastic member having an end portion at a side of the elastic member in the first direction; a mount portion provided at the end portion side of the case and in which the end portion of the elastic member is mountable, the elastic member extending in a second direction, the second direction being a direction opposite from the first direction, and the elastic member generating an energizing force in the first direction; and a roll-up member extending in the orthogonal direction, and the roll-up member configured to be moved in the first direction by the energizing force of the elastic member to roll up the liquid container; characterized by: a lock member configured to lock movement, in the first direction, of the roll-up member from a position at an end of the case in the second direction, the lock member being configured to release the roll-up member from the position at the end of the case based on consumption of the liquid contained in the liquid container. a case including a first face and an end portion, the first face extending in a first direction and an orthogonal direction orthogonal to the first direction and parallel to first face, the end portion being provided at an end portion side of the first face in the first direction; a spout support portion provided at the end portion of the case, and configured to support the spout of the liquid container; an elastic member having an end portion at a side of the elastic member in the first direction; a mount portion provided at the end portion side of the case and in which the end portion of the elastic member is mountable, the elastic member extending in a second direction, the second direction being a direction opposite from the first direction, and the elastic member generating an energizing force in the first direction; and a roll-up member extending in the orthogonal direction, and the roll-up member configured to be moved in the first direction by the energizing force of the elastic member to roll up the liquid container; characterized by: a lock member configured to lock movement, in the first direction, of the roll-up member from a position at an end of the case in the second direction, the lock member being configured to release the roll-up member from the position at the end of the case based on consumption of the liquid contained in the liquid container.
Measurement amplifying circuit for a piezoelectric sensor positioned in an internal combustion engine and delivering a signal (Sc) to be measured, said circuit including: • a common-mode voltage generation module, • a differential amplifier comprising a first operational amplifier having a first input (E1-) connected to a first terminal of the piezoelectric sensor, a second input (E1+) connected to an output of the common-mode voltage generation module, and an output (S1, said differential amplifier comprising a second operational amplifier having a first input (E2-) connected to a second terminal of the piezoelectric sensor, a second input (E2+) connected to the output of the common-mode voltage generation module, and an output, • a subtraction module comprising an operational amplifier connected to the outputs (S1, S2) of the first and second operational amplifiers (411, 415) of the differential amplifier, characterized in that the common-mode voltage generation module is to be connected to a wall of the engine, said common-mode voltage generation module being adapted to deliver a common-mode voltage signal (Vcm) reproducing the variations of an engine signal (Sb) received from said engine wall. • a common-mode voltage generation module, • a differential amplifier comprising a first operational amplifier having a first input (E1-) connected to a first terminal of the piezoelectric sensor, a second input (E1+) connected to an output of the common-mode voltage generation module, and an output (S1, said differential amplifier comprising a second operational amplifier having a first input (E2-) connected to a second terminal of the piezoelectric sensor, a second input (E2+) connected to the output of the common-mode voltage generation module, and an output, • a subtraction module comprising an operational amplifier connected to the outputs (S1, S2) of the first and second operational amplifiers (411, 415) of the differential amplifier,
A device for determining the amount of hemolysis in a plasma fraction wherein the device comprises: a body with an upper portion and lower portion; an opening defined in the upper portion of the body for introduction of a blood sample; a plasma separation membrane disposed between the upper portion and the lower portion; a second membrane positioned adjacent and below the plasma separation membrane so as to receive a plasma fraction that was separated from the blood sample by the plasma separation membrane; a slit defining a pathway for energy to be applied to the second membrane from a detection system, characterized in that the detection system is configured to transmit energy from an energy source to the membrane through the slit and comprises a detector which is configured to receive and measure energy transmitted from the membrane or energy absorbed by the membrane, the detection system further comprising a computing unit comprising: one or more modules configured to receive data from the detector and determine a degree of hemolysis from the data. a body with an upper portion and lower portion; an opening defined in the upper portion of the body for introduction of a blood sample; a plasma separation membrane disposed between the upper portion and the lower portion; a second membrane positioned adjacent and below the plasma separation membrane so as to receive a plasma fraction that was separated from the blood sample by the plasma separation membrane; a slit defining a pathway for energy to be applied to the second membrane from a detection system, characterized in that the detection system is configured to transmit energy from an energy source to the membrane through the slit and comprises a detector which is configured to receive and measure energy transmitted from the membrane or energy absorbed by the membrane, the detection system further comprising a computing unit comprising: one or more modules configured to receive data from the detector and determine a degree of hemolysis from the data.
An aerofoil component defining an in use leading edge and a trailing edge (40the leading edge defining a waveform profile, wherein the waveform profile c(r) extends in a spanwise direction and comprises a superposition of a first wave and a second wave, the first and second waves having different wavelengths (γ) such that the waveform profile defines a plurality of first and second generally chordwise extending recesses (46a, 46b) spaced in the spanwise direction and having a different extent in the chordwise direction, characterised in that the waveform profile is of the form c r = C 0 + h 1 cos 2 πr γ 1 + h 2 cos 2 πr γ 2 where c ( r) is representative of the chordwise extent c of the leading or trailing edge from the mean chord line C 0 as a function of the span r, h 1 and h 2 are representative of the amplitude of the first and second waves respectively, and γ 1 and γ 2 are representative of the wavelength of the first and second wave.
A tactile sensation providing apparatus, comprising: a structure configured to provide a tactile sensation; and an actuator configured to cause the structure to vibrate according to expansion and contraction displacement of a piezoelectric element, wherein the structure includes an abutment configured to abut the actuator and the abutment is non-adherent to the actuator, characterised in that the structure further comprises a guide configured to guide the actuator to the abutment. a structure configured to provide a tactile sensation; and an actuator configured to cause the structure to vibrate according to expansion and contraction displacement of a piezoelectric element, wherein the structure includes an abutment configured to abut the actuator and the abutment is non-adherent to the actuator, characterised in that the structure further comprises a guide configured to guide the actuator to the abutment.
Method for production of a water soluble immunostimulatory composition that contains a saccharide fraction, comprising the steps of: i) providing yeast cell material, ii) subjecting said yeast cell material to a hydrolysis with an alkali at a pH of 9 to 14 and a temperature of 10° to 100° C for 10 min to 18 hours and an acid at a pH of 1.5 to 4 and a temperature of 30° to 100° C for 1 to 48 hours to release mannans and glucans from yeast cell material, and optionally neutralising the material, iii) separating water soluble and insoluble fractions from the material obtained in step ii), and, optionally, iv) subjecting the water soluble fraction of step iii) to further fractionation step, wherein the water soluble fraction comprises mannans and beta-1,6 glucans, and wherein the water soluble fraction is substantially odourless and tasteless. i) providing yeast cell material, ii) subjecting said yeast cell material to a hydrolysis with an alkali at a pH of 9 to 14 and a temperature of 10° to 100° C for 10 min to 18 hours and an acid at a pH of 1.5 to 4 and a temperature of 30° to 100° C for 1 to 48 hours to release mannans and glucans from yeast cell material, and optionally neutralising the material, iii) separating water soluble and insoluble fractions from the material obtained in step ii), and, optionally, iv) subjecting the water soluble fraction of step iii) to further fractionation step,
A power generating apparatus to generate energy from a renewable energy source, the power generating apparatus comprising: an apparatus that generates a first current from a renewable energy source; an emitter to convert the first current into an electron beam, the emitter having a first potential; and a collector having a second potential to accelerate electrons in the electron beam to a high kinetic energy level, the collector collects the electrons from the accelerated electron beam to provide a second current that is capable of driving a load, wherein the power generating apparatus further comprises one of one of a resonant cavity, a slow wave structure, and longitudinal magnetic field structure that causes the electron beam to generate electromagnetic radiation at a frequency substantially equal to an absorption frequency of a predetermined chemical reactant to effect a chemical reaction. an apparatus that generates a first current from a renewable energy source; an emitter to convert the first current into an electron beam, the emitter having a first potential; and a collector having a second potential to accelerate electrons in the electron beam to a high kinetic energy level, the collector collects the electrons from the accelerated electron beam to provide a second current that is capable of driving a load, wherein the power generating apparatus further comprises one of one of a resonant cavity, a slow wave structure, and longitudinal magnetic field structure that causes the electron beam to generate electromagnetic radiation at a frequency substantially equal to an absorption frequency of a predetermined chemical reactant to effect a chemical reaction.
A computer program product for facilitating processing within a computing environment, the computer program product comprising: a computer readable storage medium (14, 104, 202) readable by a processing circuit (102, 204) and storing instructions for performing a method comprising: obtaining an instruction to perform one or more operations using an input value, the instruction being a single architected instruction, and the instruction comprising a negative zero control indicator indicating whether negative zero control is enabled for execution of the instruction, wherein enabling or disabling of the negative zero control results in control of a sign of an output zero value; and executing the instruction, the executing comprising: performing the one or more operations using the input value to obtain a result comprising a sign; determining whether to control the sign of the result, the determining being based at least in part on the negative zero control indicator being set to a defined value; and performing further processing, as part the executing the instruction, based on the determining, wherein the further processing forces a positive sign on the zero value, or allows the zero result to be output with the negative sign. obtaining an instruction to perform one or more operations using an input value, the instruction being a single architected instruction, and the instruction comprising a negative zero control indicator indicating whether negative zero control is enabled for execution of the instruction, wherein enabling or disabling of the negative zero control results in control of a sign of an output zero value; and executing the instruction, the executing comprising: performing the one or more operations using the input value to obtain a result comprising a sign; determining whether to control the sign of the result, the determining being based at least in part on the negative zero control indicator being set to a defined value; and performing further processing, as part the executing the instruction, based on the determining, wherein the further processing forces a positive sign on the zero value, or allows the zero result to be output with the negative sign. performing the one or more operations using the input value to obtain a result comprising a sign; determining whether to control the sign of the result, the determining being based at least in part on the negative zero control indicator being set to a defined value; and performing further processing, as part the executing the instruction, based on the determining, wherein the further processing forces a positive sign on the zero value, or allows the zero result to be output with the negative sign.
Rubberized reinforcing ply for articles composed of elastomeric material, preferably for vehicle tires, wherein the reinforcing ply has a multiplicity of strengthening elements which are in parallel and spaced apart, wherein each strengthening element is a cord which is end-twisted from at least two twisted multifilament yarns, characterized in that the cord is end-twisted from at least two twisted multifilament yarns composed of polyamide 6.6, in that the raw yarn composed of polyamide 6.6 has a tenacity which, at an elongation of 4%, is within a range from 1.35 cN/dtex to 1.60 cN/dtex, in that the cord has a tenacity which, at an elongation of 4%, is within a range from 1.2 cN/dtex to 2 cN/dtex and in that the cord has a thermal shrinkage at 177° within a range of 4.0% - 7.0%, wherein the tenacity in accordance with ASTM D885-16 and the thermal shrinkage at 177°C are determined under a pre-tension of 0.045 g/dtex with an exposure time of two minutes.
A method for performing sidelink communication by a first device, the method comprising: receiving, from a second device, information regarding a latency bound related to sidelink channel state information, CSI, medium access control, MAC, control element, CE, transmission, wherein a respective latency bound is maintained for each of PC5 radio resource control, RRC, connections between the first device and the second device; receiving, from the second device, a channel state information-reference signal, CSI-RS; transmitting, to a base station, a scheduling request, SR, based on (i) triggering of the sidelink CSI MAC CE transmission to the second device and (ii) no sidelink grant for the sidelink CSI MAC CE transmission, wherein a sidelink CSI MAC CE including channel-related information is obtained based on the CSI-RS; receiving, from the base station, a sidelink grant related to the SR; and canceling the triggered sidelink CSI MAC CE transmission to the second device, based on the sidelink grant which cannot fulfil the latency bound related to the sidelink CSI MAC CE transmission. receiving, from a second device, information regarding a latency bound related to sidelink channel state information, CSI, medium access control, MAC, control element, CE, transmission, wherein a respective latency bound is maintained for each of PC5 radio resource control, RRC, connections between the first device and the second device; receiving, from the second device, a channel state information-reference signal, CSI-RS; transmitting, to a base station, a scheduling request, SR, based on (i) triggering of the sidelink CSI MAC CE transmission to the second device and (ii) no sidelink grant for the sidelink CSI MAC CE transmission, wherein a sidelink CSI MAC CE including channel-related information is obtained based on the CSI-RS; receiving, from the base station, a sidelink grant related to the SR; and canceling the triggered sidelink CSI MAC CE transmission to the second device, based on the sidelink grant which cannot fulfil the latency bound related to the sidelink CSI MAC CE transmission.
A transient signal encoding method for speech signals or audio signals, comprising: obtaining a reference sub-frame where a maximal time envelope having a maximal amplitude value from time envelopes of all sub-frames of an input signal is located, wherein the input signal is a transient signal; decreasing an amplitude value of the time envelope of each sub-frame before the reference sub-frame in such a way that a first difference is greater than a preset first threshold, wherein the first difference is a difference between the amplitude value of the time envelope of each sub-frame before the reference sub-frame and the amplitude value of the maximal time envelope; and writing the adjusted time envelope obtained by the decreasing step into an encoding bitstream. obtaining a reference sub-frame where a maximal time envelope having a maximal amplitude value from time envelopes of all sub-frames of an input signal is located, wherein the input signal is a transient signal; decreasing an amplitude value of the time envelope of each sub-frame before the reference sub-frame in such a way that a first difference is greater than a preset first threshold, wherein the first difference is a difference between the amplitude value of the time envelope of each sub-frame before the reference sub-frame and the amplitude value of the maximal time envelope; and writing the adjusted time envelope obtained by the decreasing step into an encoding bitstream.
A cascaded clock ring network comprising: a clock signal path via which a source clock signal is transmittable through a plurality of series-connected processing nodes, from a first processing node to a last processing node, wherein the last processing node provides the transmitted source clock signal as an end clock signal (C END); a data path via which data values (D0', D1', D2', D3', D4', D5', D6', D7', D END) are transmittable through the plurality of processing nodes in response to the transmitted source clock signal, from the first processing node to the last processing node, wherein the last processing node provides the transmitted data values as end data values (D END); a first-in first-out FIFO memory operative to write the end data values in response to the end clock signal, and operative to read the end data values previously written to the FIFO memory to the first processing node in response to the source clock signal; and. a synchronizing circuit operative to synchronize the writing and reading of the end data values to ensure that a plurality of end data values are initially written into the FIFO memory before an end data value is read from the FIFO memory. a clock signal path via which a source clock signal is transmittable through a plurality of series-connected processing nodes, from a first processing node to a last processing node, wherein the last processing node provides the transmitted source clock signal as an end clock signal (C END); a data path via which data values (D0', D1', D2', D3', D4', D5', D6', D7', D END) are transmittable through the plurality of processing nodes in response to the transmitted source clock signal, from the first processing node to the last processing node, wherein the last processing node provides the transmitted data values as end data values (D END); a first-in first-out FIFO memory operative to write the end data values in response to the end clock signal, and operative to read the end data values previously written to the FIFO memory to the first processing node in response to the source clock signal; and. a synchronizing circuit operative to synchronize the writing and reading of the end data values to ensure that a plurality of end data values are initially written into the FIFO memory before an end data value is read from the FIFO memory.
A proximity switch comprising: a body tube having a blind bore, a closed end, and an open end; a magnetic proximity switch assembly disposed inside the blind bore; characterized in further comprising a hermetic seal covering the blind bore between the magnetic proximity switch assembly and the open end; a crush ring disposed against an annular shoulder defined in a surface of the blind bore between the hermetic seal and the open end; a crush ring compression device having a threaded plug body that screws into the open end of the blind bore and sealingly engages the crush ring; and a potting filling any space between the crush ring compression device and the hermetic seal; wherein the hermetic seal, the potting, and the crush ring compression device seal the blind bore and protect the magnetic proximity switch during pressurization and submergence testing. a body tube having a blind bore, a closed end, and an open end; a magnetic proximity switch assembly disposed inside the blind bore; characterized in further comprising a hermetic seal covering the blind bore between the magnetic proximity switch assembly and the open end; a crush ring disposed against an annular shoulder defined in a surface of the blind bore between the hermetic seal and the open end; a crush ring compression device having a threaded plug body that screws into the open end of the blind bore and sealingly engages the crush ring; and a potting filling any space between the crush ring compression device and the hermetic seal; wherein the hermetic seal, the potting, and the crush ring compression device seal the blind bore and protect the magnetic proximity switch during pressurization and submergence testing.