mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a host computing system configured to execute a plurality of virtual machines (211, 311) in a cloud computing environment; a cloud computing channel communicatively coupling the host computing system to a client computing system assigned to a particular virtual machine of the plurality of virtual machines, wherein the cloud computing channel includes identity security regarding identities of parties communicating over the cloud computing channel; wherein the particular virtual machine is configured to perform the following: an act of generating a certificate; an act of installing the certificate on the virtual machine; and an act of providing a first certificate representation corresponding to the certificate to the host computing system so that the host computing system provides the certificate representation to the client computing system through the cloud computing channel; and wherein the virtual machine in the cloud computing environment is configured to respond to an initial connection request from the client computing system with a second certificate representation corresponding to the certificate so that the client computing system can compare the first certificate representation with the second certificate representation. a host computing system configured to execute a plurality of virtual machines (211, 311) in a cloud computing environment; a cloud computing channel communicatively coupling the host computing system to a client computing system assigned to a particular virtual machine of the plurality of virtual machines, wherein the cloud computing channel includes identity security regarding identities of parties communicating over the cloud computing channel; wherein the particular virtual machine is configured to perform the following: an act of generating a certificate; an act of installing the certificate on the virtual machine; and an act of providing a first certificate representation corresponding to the certificate to the host computing system so that the host computing system provides the certificate representation to the client computing system through the cloud computing channel; and an act of generating a certificate; an act of installing the certificate on the virtual machine; and an act of providing a first certificate representation corresponding to the certificate to the host computing system so that the host computing system provides the certificate representation to the client computing system through the cloud computing channel; and wherein the virtual machine in the cloud computing environment is configured to respond to an initial connection request from the client computing system with a second certificate representation corresponding to the certificate so that the client computing system can compare the first certificate representation with the second certificate representation.
Foldable frame with two side frames (1, 2) which are interconnected by means of a seat, the seat comprising two rigid, plate-like seat elements (3, 4) which are articulated to each other, a respective one of the seat elements (3, 4) being articulated (6, 7) to a respective side frame (1, 2), the side frames (1, 2) and the seat elements (3, 4) being interconnected by means of a coupling mechanism, and in the unfolded seat position at least a portion of the coupling mechanism being received in recesses on the bottom side of the seat elements (3, 4), characterized in - that the coupling mechanism comprises a respective four-bar linkage which couples the seat elements (3, 4) to each other, and a respective coupling bar (9, 10) which articulates the four bar linkage to a lower portion of the respective side frame (1, 2), and - two struts (12, 13) are connected to the articulation at an end of the coupling bar (9, 10), wherein - the four bar linkage comprises two struts (12, 13) which are articulated to each other at an end, and the other ends of which are respectively articulated (15, 16) to a respective one of the seat elements (3, 4), and - that the articulated connection of the seat elements (3, 4) is arranged on the bottom side of the two seat elements (3,4) for forming a dead point. - that the coupling mechanism comprises a respective four-bar linkage which couples the seat elements (3, 4) to each other, and a respective coupling bar (9, 10) which articulates the four bar linkage to a lower portion of the respective side frame (1, 2), and - two struts (12, 13) are connected to the articulation at an end of the coupling bar (9, 10), wherein - the four bar linkage comprises two struts (12, 13) which are articulated to each other at an end, and the other ends of which are respectively articulated (15, 16) to a respective one of the seat elements (3, 4), and - that the articulated connection of the seat elements (3, 4) is arranged on the bottom side of the two seat elements (3,4) for forming a dead point.
A method of controlling a sinusoidally driven brushless DC (BLDC) motor or a sinusoidally driven Permanent Magnet Synchronous Motor (PMSM), the method comprising the steps of: a) determining a time T1 at which a phase current maximum in a particular motor phase should occur; b) taking a series of samples representative of the phase current of the motor phase; c) using the samples to determine an error function value indicative of the lead angle of the phase current; and d) adjusting the driving voltage profile to minimise or otherwise selecting the absolute magnitude of the error function value; characterised in that: - determining the time T1 at which the phase current maximum should occur is based on detected back EMF zero crossing events or interpolation from measured back EMF samples; - the series of samples representative of the phase current are taken at symmetrical interval before and after the time T1; - estimating the rotor position from the back EMF samples; - the driving voltage profile is derived from a stored driving voltage profile table, from which the target PWM duty cycle values corresponding to each motor phase are selected based on the rotor position plus the lead angle. a) determining a time T1 at which a phase current maximum in a particular motor phase should occur; b) taking a series of samples representative of the phase current of the motor phase; c) using the samples to determine an error function value indicative of the lead angle of the phase current; and d) adjusting the driving voltage profile to minimise or otherwise selecting the absolute magnitude of the error function value; characterised in that: - determining the time T1 at which the phase current maximum should occur is based on detected back EMF zero crossing events or interpolation from measured back EMF samples; - the series of samples representative of the phase current are taken at symmetrical interval before and after the time T1; - estimating the rotor position from the back EMF samples; - the driving voltage profile is derived from a stored driving voltage profile table, from which the target PWM duty cycle values corresponding to each motor phase are selected based on the rotor position plus the lead angle. - determining the time T1 at which the phase current maximum should occur is based on detected back EMF zero crossing events or interpolation from measured back EMF samples; - the series of samples representative of the phase current are taken at symmetrical interval before and after the time T1; - estimating the rotor position from the back EMF samples; - the driving voltage profile is derived from a stored driving voltage profile table, from which the target PWM duty cycle values corresponding to each motor phase are selected based on the rotor position plus the lead angle.
A system for closing a pair of doors (12a, 12b) for a thrust reverser of an aircraft nacelle, the doors (12a, 12b) being diametrically opposed and pivotally mounted between a direct jet position, in which they ensure the aerodynamic continuity of the nacelle, and a reverse jet position in which they open at least one passage in the nacelle, the closing system comprising: - a actuator for closing the doors (12a, 12b) comprising two first connecting rods (16a, 16b), each first connecting rod being configured to be connected to a first lateral edge (120a, 120b) of each door (12a, 12b), said actuator being arranged to maneuver each door at least towards the direct jet position, - two sliding members (22a, 22b) each carrying a second connecting rod (18a, 18b) configured to be connected to a lateral edge (121a, 121b) opposite to the first lateral edge (120a, 120b) of each door (12a, 12b), said connecting rods being arranged to be driven by the doors when the closing actuator maneuvers the doors towards the direct jet position, so as to displace the sliding members (22a, 22b), and - a connecting rod breakage detection device arranged to detect the relative position of the sliding members (22a, 22b) in the direct jet position. - a actuator for closing the doors (12a, 12b) comprising two first connecting rods (16a, 16b), each first connecting rod being configured to be connected to a first lateral edge (120a, 120b) of each door (12a, 12b), said actuator being arranged to maneuver each door at least towards the direct jet position, - two sliding members (22a, 22b) each carrying a second connecting rod (18a, 18b) configured to be connected to a lateral edge (121a, 121b) opposite to the first lateral edge (120a, 120b) of each door (12a, 12b), said connecting rods being arranged to be driven by the doors when the closing actuator maneuvers the doors towards the direct jet position, so as to displace the sliding members (22a, 22b), and - a connecting rod breakage detection device arranged to detect the relative position of the sliding members (22a, 22b) in the direct jet position.
A silicone composition comprising a silicone having the formula: MM' where M is selected from the group consisting of R 1 R 2 R 3 SiO 1/2; M' is selected from the group consisting of R 4 R 5 R 6 SiO 1/2; with R 1 is R 8 R 9 R 10 SiR 12 with R 8, R 9, and R 10 each independently selected from the group of monovalent hydrocarbon radicals having from 1 to 6 carbon atoms; R 12 is a divalent hydrocarbon radical having from 1 to 3 carbon atoms; R 2, R 3, R 5 and R 6 are methyl; and R 4 is R 14 -R c; R 14 is a divalent radical by the formula R 21 w (R 22) x -, where R 21 and R 22 are each independently selected from the group consisting of a divalent hydrocarbon group of 1 to 4 carbon atoms that may each be optionally substituted with one or more OH radicals; and subscripts w and x are 0 or 1; R c is N(R 24)(R 25), where R 24 and R 25 are independently selected from the group consisting of H, and -R 32 O(C 2 H 4 O) g (C 3 H 6 O) h (C 4 H 8 O) i R 33; the subscripts h and i are 0 or positive and satisfy the following relationships: 1 ≤ g+h+i ≤10 with g ≥1; R 32, is selected from the group consisting of a divalent hydrocarbon group of 2 to 4 carbon atoms; and R 33 is H. M is selected from the group consisting of R 1 R 2 R 3 SiO 1/2; M' is selected from the group consisting of R 4 R 5 R 6 SiO 1/2; R 1 is R 8 R 9 R 10 SiR 12 with R 8, R 9, and R 10 each independently selected from the group of monovalent hydrocarbon radicals having from 1 to 6 carbon atoms; R 12 is a divalent hydrocarbon radical having from 1 to 3 carbon atoms; R 2, R 3, R 5 and R 6 are methyl; and R 4 is R 14 -R c; R 14 is a divalent radical by the formula R 21 w (R 22) x -, where R 21 and R 22 are each independently selected from the group consisting of a divalent hydrocarbon group of 1 to 4 carbon atoms that may each be optionally substituted with one or more OH radicals; and subscripts w and x are 0 or 1; R c is N(R 24)(R 25), where R 24 and R 25 are independently selected from the group consisting of H, and -R 32 O(C 2 H 4 O) g (C 3 H 6 O) h (C 4 H 8 O) i R 33; the subscripts h and i are 0 or positive and satisfy the following relationships: 1 ≤ g+h+i ≤10 with g ≥1; R 32, is selected from the group consisting of a divalent hydrocarbon group of 2 to 4 carbon atoms; and R 33 is H.
A knitted glove comprising a knitted fabric, the knitted fabric comprising: multiple stages of a first course each of which has a plurality of first loops and a first cross element configured to connect the first loops to each other and is constituted by a first knitting yarn and in which the plurality of first loops are aligned in the course direction; and multiple stages of a second course each of which has a plurality of second loops and is constituted by a second knitting yarn and in which the plurality of second loops are aligned in the course direction, wherein between at least one set of two adjacent first loops in one stage of the first course, a loop (11, 12) in another stage of the courses (31, 32) is arranged, and the first cross element is knitted so as to cross over the loop (11, 12), the knitted glove being characterized in that the first knitting yarn constituting the first course has an elongation rate of 12.5 % or more, and the second knitting yarn constituting the second course has a yarn containing a cut resistant fiber. multiple stages of a first course each of which has a plurality of first loops and a first cross element configured to connect the first loops to each other and is constituted by a first knitting yarn and in which the plurality of first loops are aligned in the course direction; and multiple stages of a second course each of which has a plurality of second loops and is constituted by a second knitting yarn and in which the plurality of second loops are aligned in the course direction, wherein between at least one set of two adjacent first loops in one stage of the first course, a loop (11, 12) in another stage of the courses (31, 32) is arranged, and the first cross element is knitted so as to cross over the loop (11, 12), the knitted glove being characterized in that the first knitting yarn constituting the first course has an elongation rate of 12.5 % or more, and the second knitting yarn constituting the second course has a yarn containing a cut resistant fiber.
A method for transferring uplink data by a mobility management entity, MME, in a cellular communication system, the method comprising: receiving the uplink data from a user equipment, UE, the uplink data including an indicator indicating whether the uplink data is non-internet protocol, IP, data; and if the indicator indicates that the uplink data is the non-IP data, transmitting the uplink data to a service capability exposure function, SCEF,. receiving the uplink data from a user equipment, UE, the uplink data including an indicator indicating whether the uplink data is non-internet protocol, IP, data; and if the indicator indicates that the uplink data is the non-IP data, transmitting the uplink data to a service capability exposure function, SCEF,.
Pressostatic odor control cover for slurry treatment tank with device for reducing the inner volume occupied by harmful and malodorous gases emitted from the surface of the slurry, where said treatment tank is delimited by a base and by lateral containment walls (2"), where said pressostatic odor control cover comprises: - a gas impermeable flexible membrane; - gas-tight continuous fixing means of a margin of said membrane to said tank; - insufflation means of air inside said cover; - discharge valve means of said air out of said cover; characterized in that: - said odor control cover also comprises a diaphragm permeable to liquids and to gases, wherein said diaphragm comprises a fine mesh net and is arranged below said flexible membrane and fixed to it to delimit a reduced volume of said odor control cover available to the harmful gases and to the malodorous substances released from the slurry, dividing the volume subtended by the pressostatic odor control cover into two separate chambers (A, B), wherein the upper chamber is delimited by the top of the membrane and by the diaphragm, and the lower chamber is delimited by the diaphragm, by the lower portion of the membrane and by the free surface of the slurry contained in the tank; - said air insufflation means are connected to said cover above said diaphragm; - said discharge valve means are connected to said cover below said diaphragm, wherein said insufflation means are suitable to insufflate new air in said upper chamber so as to maintain the upper chamber at a slightly higher pressure than the lower chamber and thus prevent the passage of polluted air from the lower chamber to the upper chamber. - a gas impermeable flexible membrane; - gas-tight continuous fixing means of a margin of said membrane to said tank; - insufflation means of air inside said cover; - discharge valve means of said air out of said cover; characterized in that: - said odor control cover also comprises a diaphragm permeable to liquids and to gases, wherein said diaphragm comprises a fine mesh net and is arranged below said flexible membrane and fixed to it to delimit a reduced volume of said odor control cover available to the harmful gases and to the malodorous substances released from the slurry, dividing the volume subtended by the pressostatic odor control cover into two separate chambers (A, B), wherein the upper chamber is delimited by the top of the membrane and by the diaphragm, and the lower chamber is delimited by the diaphragm, by the lower portion of the membrane and by the free surface of the slurry contained in the tank; - said air insufflation means are connected to said cover above said diaphragm; - said discharge valve means are connected to said cover below said diaphragm,
A non-aqueous electrolyte for a secondary battery, comprising an electrolytic salt, a first solvent, and a second solvent, wherein the electrolytic salt comprises a lithium salt and is included at a concentration of 0.5 M (mol/L) to 3.8 M (mol/L) in the non-aqueous electrolyte, the first solvent comprises at least one of dimethyl carbonate, ethyl acetate, methyl propionate, and methyl acetate and has a solubility of the electrolytic salt ranging from 100 to 400 g dissolved in 100 g of the first solvent at 25°C, the second solvent comprises at least one of trifluorotoluene (CF 3 Ph) and fluorobenzene and has a solubility of the electrolytic salt of less than or equal to 1 g dissolved in 100 g of the second solvent at 25°C the first solvent comprises a coordination solvent portion coordinated with an ionized ion from the electrolyte salt and a free solvent portion that is not coordinated with an ionized ion from the electrolyte salt, characterized in that a peak area ratio of the free solvent portion determined by a Raman spectrum is less than 20 % where the peak area ratio of the free solvent is a ratio of a peak area of the free solvent relative to a total area of a peak area of the free solvent and a peak area of the coordination solvent determined by the Raman spectrum, and the peak area is an area surrounded by a peak separated by peak separation treatment and a predetermined baseline. an electrolytic salt, a first solvent, and a second solvent, wherein the electrolytic salt comprises a lithium salt and is included at a concentration of 0.5 M (mol/L) to 3.8 M (mol/L) in the non-aqueous electrolyte, the first solvent comprises at least one of dimethyl carbonate, ethyl acetate, methyl propionate, and methyl acetate and has a solubility of the electrolytic salt ranging from 100 to 400 g dissolved in 100 g of the first solvent at 25°C, the second solvent comprises at least one of trifluorotoluene (CF 3 Ph) and fluorobenzene and has a solubility of the electrolytic salt of less than or equal to 1 g dissolved in 100 g of the second solvent at 25°C the first solvent comprises a coordination solvent portion coordinated with an ionized ion from the electrolyte salt and a free solvent portion that is not coordinated with an ionized ion from the electrolyte salt, characterized in that a peak area ratio of the free solvent portion determined by a Raman spectrum is less than 20 % where the peak area ratio of the free solvent is a ratio of a peak area of the free solvent relative to a total area of a peak area of the free solvent and a peak area of the coordination solvent determined by the Raman spectrum, and the peak area is an area surrounded by a peak separated by peak separation treatment and a predetermined baseline.
A straddle type vehicle, in particular a motorcycle comprising: - a body with a front portion; - a head pipe; said front portion being arranged frontward with respect to said head pipe; - at least one fork which is rotatably supported by said head pipe; - a steering mechanism supported at a top portion of said front fork; and at least one front wheel supported at a bottom portion of said front fork; - a frame; and - a headlight comprising at least one LED light source; said headlight further comprising a plurality of cooling fins operatively connected to said LED light source and adapted to dissipate the heat generated, in use, by the operation of said LED light source; said front portion comprising: - a led lighting unit; and - a support structure; said fins being interposed between said led lighting source and said support structure; and - an additional cover, which covers at least one portion of said supporting structure or said led lighting unit; said led lighting unit comprising a conveying path defined by a vane between said frame and said headlight; said conveying path being open towards the outside of said led lighting unit and being thermally coupled with said fins, so as to convey a cooling flow from the outside of said unit towards said fins; said conveying path comprising an outlet being open towards said support structure; characterized by comprising an air flow passage area formed at said front portion by said additional cover which covers at least one portion of said supporting structure or said led lighting unit; said air flow passage area comprising, in turn,: - an inlet for the running wind mounted at the bottom part of said front portion; and - an outlet for said running wind mounted at the top part of said front portion. - a body with a front portion; - a head pipe; said front portion being arranged frontward with respect to said head pipe; - at least one fork which is rotatably supported by said head pipe; - a steering mechanism supported at a top portion of said front fork; and at least one front wheel supported at a bottom portion of said front fork; - a frame; and - a headlight comprising at least one LED light source; - a led lighting unit; and - a support structure; - an additional cover, which covers at least one portion of said supporting structure or said led lighting unit; - an inlet for the running wind mounted at the bottom part of said front portion; and - an outlet for said running wind mounted at the top part of said front portion.
A powder composition for laundry, comprising: silicone, cationic polymer and carrier wherein the silicone composition and cationic polymer are loaded onto the carrier and the carrier is selected from sodium carbonate, sodium tripolyphosphate and mixtures thereof and wherein the ratio of silicone to cationic polymer is between 5:4 and 8:1 and the combined weight of silicone and cationic polymer is 15 to 35 w.t. % of the powder composition.
A water supply system with a water inlet connection, with a water outlet connection, with a centrifugal pump, with an electric motor, with an electrical/electronic control, with a diaphragm tank, wherein the centrifugal pump and the diaphragm tank are arranged above one another and are connected to one another via a construction unit, wherein the construction unit comprises the water inlet connection and the water outlet connection, the conduit connections between the water connections (12, 28) and the pump, as well as a connection for the diaphragm tank, characterised in that the construction unit is designed a single piece plastic injection moulded part and that the construction unit comprises part of the pump casing, specifically the suction port of the pump.