mhurhangee/ep-ind-claims huggingface dataset:
A capacity control valve comprising: a valve housing (10, 310) provided with a discharge port through which a discharge fluid of discharge pressure (Pd) passes, a suction port through which a suction fluid of suction pressure (Ps) passes, and a control port through which a control fluid of control pressure (Ps) passes; and a valve element (51,,, 351) configured to be brought into contact with and separated from a valve seat by a driving force of a solenoid to open and close a communication between the control port and the discharge port or a communication between the control port and the suction port, wherein a sliding region is formed by an inner peripheral surface (11a, 311a) of the valve housing (10, 310) and an outer peripheral surface (51c, 351c) of the valve element (51, 351), a groove (56, 356) extending in a circumferential direction is formed in at least one of the inner peripheral surface (11a, 311a) of the valve housing (10, 310) and the outer peripheral surface (51c, 351c) of the valve element (51, 351), the sliding region has a structure in which a swirling current is generated in the groove (56, 356) by a fluid flowing from a high-pressure side to a low-pressure side in a clearance between the inner peripheral surface (11a, 311a) of the valve housing (10, 310) and the outer peripheral surface (51c, 351c) of the valve element (51,,, 351), characterized in that a radial length of the clearance is within a range from 1/10 to 1/300 of an axial length of the sliding region, and the groove (56, 356) includes at least two threads of spiral grooves (57, 58). a valve housing (10, 310) provided with a discharge port through which a discharge fluid of discharge pressure (Pd) passes, a suction port through which a suction fluid of suction pressure (Ps) passes, and a control port through which a control fluid of control pressure (Ps) passes; and a valve element (51,,, 351) configured to be brought into contact with and separated from a valve seat by a driving force of a solenoid to open and close a communication between the control port and the discharge port or a communication between the control port and the suction port, wherein a sliding region is formed by an inner peripheral surface (11a, 311a) of the valve housing (10, 310) and an outer peripheral surface (51c, 351c) of the valve element (51, 351), a groove (56, 356) extending in a circumferential direction is formed in at least one of the inner peripheral surface (11a, 311a) of the valve housing (10, 310) and the outer peripheral surface (51c, 351c) of the valve element (51, 351), the sliding region has a structure in which a swirling current is generated in the groove (56, 356) by a fluid flowing from a high-pressure side to a low-pressure side in a clearance between the inner peripheral surface (11a, 311a) of the valve housing (10, 310) and the outer peripheral surface (51c, 351c) of the valve element (51,,, 351), characterized in that a radial length of the clearance is within a range from 1/10 to 1/300 of an axial length of the sliding region, and the groove (56, 356) includes at least two threads of spiral grooves (57, 58).
A vacuum abatement system comprising: at least one manifold shaped to fit next to an image bearing member of a printing engine; at least one blower; and at least one air duct connected to said manifold, characterized in that said at least one blower is positioned within said manifold, and wherein said manifold comprises an integrated portion of a paper exit module assembly of said printing engine. at least one manifold shaped to fit next to an image bearing member of a printing engine; at least one blower; and at least one air duct connected to said manifold, characterized in that said at least one blower is positioned within said manifold, and wherein said manifold comprises an integrated portion of a paper exit module assembly of said printing engine.
A capnograph device comprising: a carbon dioxide measurement component configured to measure respiratory carbon dioxide level; and an electronic processor programmed to: generate a capnogram signal comprising carbon dioxide level sample values measured by the carbon dioxide measurement component as a function of time; determine an end-tidal carbon dioxide, etCO 2, value from the capnogram signal; and compute an end-tidal carbon dioxide parameter quality index, etCO 2 PQI, value based on a waveform of the capnogram signal, characterized in that the electronic processor is configured to compute the etCO 2 PQI by using at least one of: a metric of the CO 2 fall time from an upper carbon dioxide level threshold (T upper) to a lower carbon dioxide level threshold (T lower) and operations including generating a capnogram histogram by binning counts of carbon dioxide level sample values of the capnogram signal into carbon dioxide level bins. a carbon dioxide measurement component configured to measure respiratory carbon dioxide level; and an electronic processor programmed to: generate a capnogram signal comprising carbon dioxide level sample values measured by the carbon dioxide measurement component as a function of time; determine an end-tidal carbon dioxide, etCO 2, value from the capnogram signal; and compute an end-tidal carbon dioxide parameter quality index, etCO 2 PQI, value based on a waveform of the capnogram signal, characterized in that the electronic processor is configured to compute the etCO 2 PQI by using at least one of: a metric of the CO 2 fall time from an upper carbon dioxide level threshold (T upper) to a lower carbon dioxide level threshold (T lower) and operations including generating a capnogram histogram by binning counts of carbon dioxide level sample values of the capnogram signal into carbon dioxide level bins. generate a capnogram signal comprising carbon dioxide level sample values measured by the carbon dioxide measurement component as a function of time; determine an end-tidal carbon dioxide, etCO 2, value from the capnogram signal; and compute an end-tidal carbon dioxide parameter quality index, etCO 2 PQI, value based on a waveform of the capnogram signal, characterized in that the electronic processor is configured to compute the etCO 2 PQI by using at least one of: a metric of the CO 2 fall time from an upper carbon dioxide level threshold (T upper) to a lower carbon dioxide level threshold (T lower) and operations including generating a capnogram histogram by binning counts of carbon dioxide level sample values of the capnogram signal into carbon dioxide level bins. a metric of the CO 2 fall time from an upper carbon dioxide level threshold (T upper) to a lower carbon dioxide level threshold (T lower) and operations including generating a capnogram histogram by binning counts of carbon dioxide level sample values of the capnogram signal into carbon dioxide level bins.
Telescopic attachment for a separator separation tank of a separator intended for installation in the ground for the separation of hydrophobic substances contained in the water, wherein a fluid comprising hydrophobic substances flows through an inlet into said separation tank in which the fluid calms down in such a manner that heavy material settles at the bottom of the separation tank in a sludge sump and more lightweight material settles in an upper layer at the top of the fluid contained in the separation tank so that fluid cleaned of said hydrophobic substances flows off through a drain, wherein said separation tank has an access opening situated on the top in the installed position and which allows access to an interior space defined inside said separation tank, said telescopic attachment comprising a telescopic element in the form of a hollow cylinder and insertable into said access opening, said telescopic element being vertically adjustable in relation to said access opening, characterized in that said telescopic attachment comprises an attachment element for insertion of the telescopic element into said access opening with a fixing means, wherein said fixing means is in the form of protrusions or burls that cooperate with a seal, wherein the burls or protrusions are formed on the outer lateral area of the hollow cylinder and wherein the seal is provided on the attachment element on the inner bearing surface and is designed for receiving said hollow cylinder, wherein the seal corresponds to said protrusions or burls in such a manner that the telescopic element inside said attachment element is held by said fixing means when loaded by its own weight, but that it is possible to vertically adjust the telescopic element in relation to the attachment element when this load is exceeded.
A hydraulic pump (6, 7) for a clutch mechanism of a vehicle transmission, the hydraulic pump (6, 7) comprising a body (60, 70) in which there are formed a chamber (61, 71), an inlet port (62, 72) through which a hydraulic fluid can enter the chamber (61, 71), and an outlet port (63, 73) through which the hydraulic fluid can leave the chamber (61, 71), the chamber (61, 71) receiving at least one hydraulic wheel of the hydraulic pump (6, 7), the inlet port (62, 72) and the outlet port (63, 73) each opening into the chamber (61, 71) of the body (60, 70), characterized in that the body (60, 70) of the hydraulic pump (6, 7) is delimited by an outer edge on which at least one peripheral groove (81, 82) is formed, configured to receive a gasket (83, 84), the gasket (83, 84) being intended to provide contact sealing between the body (60, 70) of the hydraulic pump (6, 7) and a hydraulic connection interface of the clutch mechanism.
A spark plug comprising: an outside electrode including an electrode body portion and a tip bonded to said electrode body portion; and a center electrode opposed to said tip through a spark discharge gap, wherein said electrode body portion is made of a nickel alloy containing 13 to 18% by mass of Cr, 0.03 to 0.08% by mass of C, 2 to 3% by mass of Mo, and 68% by mass or more of Ni; said nickel alloy has a total content of Si, Al, Mn and Ti of not higher than 0.8% by mass; and the content of each of Si, Al, Mn and Ti is not higher than 0.35 % by mass. an outside electrode including an electrode body portion and a tip bonded to said electrode body portion; and a center electrode opposed to said tip through a spark discharge gap, wherein said electrode body portion is made of a nickel alloy containing 13 to 18% by mass of Cr, 0.03 to 0.08% by mass of C, 2 to 3% by mass of Mo, and 68% by mass or more of Ni; said nickel alloy has a total content of Si, Al, Mn and Ti of not higher than 0.8% by mass; and the content of each of Si, Al, Mn and Ti is not higher than 0.35 % by mass.
A computer-readable storage medium (201, 202, 204, 210) storing therein a program for causing a processor to execute a process comprising: decrypting an encrypted instruction code, stored in an encrypted instruction code area of a read only memory (3, 14), by using a specific key in a core of the processor to generate a decrypted instruction code; performing booting of the core in the processor using the decrypted instruction code; setting up an authentication processing block (4, 13) to authenticate instruction codes including the encrypted instruction code on the basis of the core specific key; generating an authentication key by using the specific key; decrypting an electronic signature corresponding to authentication information added to an instruction code of a first program on a secondary memory, by using the authentication processing block (4, 13) and the authentication key; authenticating the instruction code of the first program when a decryption result of the electronic signature matches a result of an operation performed on the instruction code of the first program; and performing at least one of encryption of the instruction code of the first program, encryption of data and decryption of encrypted data by using a key stored in a key table when the first program is executed. decrypting an encrypted instruction code, stored in an encrypted instruction code area of a read only memory (3, 14), by using a specific key in a core of the processor to generate a decrypted instruction code; performing booting of the core in the processor using the decrypted instruction code; setting up an authentication processing block (4, 13) to authenticate instruction codes including the encrypted instruction code on the basis of the core specific key; generating an authentication key by using the specific key; decrypting an electronic signature corresponding to authentication information added to an instruction code of a first program on a secondary memory, by using the authentication processing block (4, 13) and the authentication key; authenticating the instruction code of the first program when a decryption result of the electronic signature matches a result of an operation performed on the instruction code of the first program; and performing at least one of encryption of the instruction code of the first program, encryption of data and decryption of encrypted data by using a key stored in a key table when the first program is executed.
System having a tool receptacle and having an adapter, wherein the tool receptacle is intended to receive a hammer-drill and/or chipping tool and the adapter, wherein the adapter is intended to be inserted into the tool receptacle, wherein the tool receptacle has at least one means (14, 16) at least for reducing the mobility of the adapter in the mounted state compared with the mobility of the hammer-drill and/or chipping tool in the mounted state, wherein the means is formed by a centring means which is intended to centre the adapter and which has at least one centring face that diverges from a bearing face for mounting the hammer-drill and/or chipping tool, wherein the tool receptacle has a further means, which is formed by a locking means that is intended to configure axial mobility of the adapter at least to be less than an idling distance of the hammer-drill and/or chipping tool, wherein the tool receptacle comprises an end cap which is embodied partially in one piece with the means formed by the locking means, wherein the adapter comprises at least one means (28, 32, 58) which is intended to reduce the mobility with respect to a hammer-drill and/or chipping tool assigned to the tool receptacle, wherein the means is formed by a centring means which is provided for centring relative to the tool receptacle and which has at least one centring face which is intended to correspond with the centring face that deviates from the bearing face for the hammer-drill and/or chipping tool, and the means is integrally formed on the adapter and is formed by a protrusion which extends in a radial direction over a cylindrical sub-region that forms a bearing face corresponding with the bearing face, said protrusion extending around the entire circumference of the adapter, and wherein the adapter has a further means formed by a fastening means, which is intended to reduce the axial mobility with respect to the hammer-drill and/or chipping tool, wherein the means, formed by a fastening means, of the adapter corresponds with the means of the tool receptacle.
Compound defined by one of the following isomeric structures Ia and Ib wherein one of Y and Z is N, and the other one is CR 2; wherein R 2 is selected from hydrogen, C 1-4 alkyl, C 1-4 alkyl substituted with at least one halogen; and C 6-10 aryl, wherein the aryl ring is unsubstituted or substituted by C 1-4 alkyl or halogen; wherein either X is and Hal is halogen selected from chlorine or bromine, or wherein X is and Hal is bromine; and wherein each R independently is hydrogen or a cation. wherein one of Y and Z is N, and the other one is CR 2; wherein R 2 is selected from hydrogen, C 1-4 alkyl, C 1-4 alkyl substituted with at least one halogen; and C 6-10 aryl, wherein the aryl ring is unsubstituted or substituted by C 1-4 alkyl or halogen; wherein either X is and Hal is halogen selected from chlorine or bromine, or wherein X is and Hal is bromine; and wherein each R independently is hydrogen or a cation.
A packaging for a cutting tool comprising one or more handles (172, 174), comprising: a body; and one or more cover portions, wherein the one or more cover portions at least partially support the cutting tool with the body; and wherein the one or more cover portion are a first portion and a second portion i such that the first portion defines a wall profile with the body and the second portion defines a curved profile adjacent the body to at least partially support the cutting tool with the body characterized in that: the body and the one or more cover portions are integrally formed and made by fiber-based packaging, wherein the curved profile comprises a cut-out section, a cavity and a cover, and wherein the curved profile is configured to snap-fit a portion of at least one of the one or more handles (172, 174) around a second end into the cover and configured to snap-fit a remaining portion into the cut-out section. a body; and one or more cover portions, wherein the one or more cover portions at least partially support the cutting tool with the body; and wherein the one or more cover portion are a first portion and a second portion i such that the first portion defines a wall profile with the body and the second portion defines a curved profile adjacent the body to at least partially support the cutting tool with the body characterized in that: the body and the one or more cover portions are integrally formed and made by fiber-based packaging, wherein the curved profile comprises a cut-out section, a cavity and a cover, and wherein the curved profile is configured to snap-fit a portion of at least one of the one or more handles (172, 174) around a second end into the cover and configured to snap-fit a remaining portion into the cut-out section. the body and the one or more cover portions are integrally formed and made by fiber-based packaging, wherein the curved profile comprises a cut-out section, a cavity and a cover, and wherein the curved profile is configured to snap-fit a portion of at least one of the one or more handles (172, 174) around a second end into the cover and configured to snap-fit a remaining portion into the cut-out section.
Electronic circuit for measuring the oscillation frequency of a resonator, comprising a first feedback loop which is a phase-locked loop comprising the resonator, a controlled oscillator and a first phase comparator (CMPH1), this loop locking the frequency of the controlled oscillator at the resonant frequency of the resonator, characterized in that it also comprises: - a second feedback loop comprising a controllable phase shifter, a second phase comparator (CMPH2) receiving the output of the controlled oscillator and the output of the controllable phase shifter, and the second phase comparator supplying a control signal for the phase shifter acting in a direction tending to reduce to zero the phase shift between its inputs, means being provided for storing the phase-shift control signal obtained, - a third self-oscillation loop comprising the resonator and the controllable phase shifter and linking the output of the controllable phase shifter to the input of the resonator, - and means for activating the first loop and the second loop and deactivating the third loop, during a calibration phase, and for deactivating the first and the second loops and activating the third loop, during an operation phase, the control of the controllable phase shifter during the operation phase being the control stored at the end of the calibration phase. - a second feedback loop comprising a controllable phase shifter, a second phase comparator (CMPH2) receiving the output of the controlled oscillator and the output of the controllable phase shifter, and the second phase comparator supplying a control signal for the phase shifter acting in a direction tending to reduce to zero the phase shift between its inputs, means being provided for storing the phase-shift control signal obtained, - a third self-oscillation loop comprising the resonator and the controllable phase shifter and linking the output of the controllable phase shifter to the input of the resonator, - and means for activating the first loop and the second loop and deactivating the third loop, during a calibration phase, and for deactivating the first and the second loops and activating the third loop, during an operation phase, the control of the controllable phase shifter during the operation phase being the control stored at the end of the calibration phase.
An external device (200; 300) for wirelessly transmitting energy to an implantable medical device, comprising: a case; at least one pressure sensor (77; 78a, 78b) for sensing a pressure impingent on the case; and detection circuitry coupled to the at least one pressure sensor for reducing the energy wirelessly transmitted to the implantable medical device as the sensed impingent pressure increases; wherein the case comprises a hand-held case comprising at least two hard case portions (15, 15b), wherein the at least one pressure sensor (77; 78a, 78b) is adapted for sensing a pressure impingent on the at least two hard case portions (15a, 15b); characterised in that the at least one pressure sensor (77; 78a, 78b) is mounted to a printed circuit board within the at least two hard case portions (15a, 15b) or wherein the at least one pressure sensor (77; 78a, 78b) is located at a junction between the bottom and the top halves of the at least two case portions (15a, 15b). a case; at least one pressure sensor (77; 78a, 78b) for sensing a pressure impingent on the case; and detection circuitry coupled to the at least one pressure sensor for reducing the energy wirelessly transmitted to the implantable medical device as the sensed impingent pressure increases; wherein the case comprises a hand-held case comprising at least two hard case portions (15, 15b), wherein the at least one pressure sensor (77; 78a, 78b) is adapted for sensing a pressure impingent on the at least two hard case portions (15a, 15b); characterised in that the at least one pressure sensor (77; 78a, 78b) is mounted to a printed circuit board within the at least two hard case portions (15a, 15b) or wherein the at least one pressure sensor (77; 78a, 78b) is located at a junction between the bottom and the top halves of the at least two case portions (15a, 15b).
A method for preparing a batter mixture free of hydrocolloids, comprising a) providing a pregelatinized pea starch, wherein the pregelatinized pea starch has a granulometry characterized by a "n" value and "d" value according to German norm DIN 66145, wherein the "n" value is from 1.2 to 1.8 and the "d" value is from 80 to 150 μm and b) mixing the pregelatinized pea starch into a batter mixture, wherein the percentage of the pregelatinized pea starch is from 1 to 10% (w/w) of the dry weight in the batter mixture, and wherein the batter mixture does not comprise a hydrocolloid. a) providing a pregelatinized pea starch, wherein the pregelatinized pea starch has a granulometry characterized by a "n" value and "d" value according to German norm DIN 66145, wherein the "n" value is from 1.2 to 1.8 and the "d" value is from 80 to 150 μm and b) mixing the pregelatinized pea starch into a batter mixture, wherein the percentage of the pregelatinized pea starch is from 1 to 10% (w/w) of the dry weight in the batter mixture, and wherein the batter mixture does not comprise a hydrocolloid.