mhurhangee/ep-ind-claims huggingface dataset:
Hydraulic assistance device comprising: - a hydraulic machine, capable of driving a wheel of a craft, - a variable displacement pump, comprising a double-acting cylinder defining two control chambers (12a, 12b), for hydraulically controlling the capacity of said pump, - two supply lines (40a, 40b), that connect the hydraulic machine and the variable displacement pump in order to form a closed circuit, characterised in that the device further comprises: - two control lines (80a, 80b), each being respectively drawn from one of the two supply lines (40a, 40b) and being configured to respectively supply one of the two control chambers (12a, 12b), - two electrically calibratable pressure limiters (90a, 90b) respectively disposed on the two control lines (80a, 80b). - a hydraulic machine, capable of driving a wheel of a craft, - a variable displacement pump, comprising a double-acting cylinder defining two control chambers (12a, 12b), for hydraulically controlling the capacity of said pump, - two supply lines (40a, 40b), that connect the hydraulic machine and the variable displacement pump in order to form a closed circuit, - two control lines (80a, 80b), each being respectively drawn from one of the two supply lines (40a, 40b) and being configured to respectively supply one of the two control chambers (12a, 12b), - two electrically calibratable pressure limiters (90a, 90b) respectively disposed on the two control lines (80a, 80b).
Partition wall for commercial vehicles, of the type comprising at least one fixed plate and a sliding door slidable with respect to said fixed plate, predisposed to separate the cockpit of a vehicle from the loading compartment, said sliding door being provided, along the upper edge and along the bottom edge, with a plurality of sliding wheels (11, 12) that are slidable respectively on an upper guide and on a lower guide associated with the structure of said vehicle, said sliding wheels (11, 12) having a grooved profile that is predisposed to be coupled with a corresponding rail of said guides (13, 14) having a conjugate profile, said sliding wheels (11,12) having elastic features so as to compensate for the backlash existing in the coupling of said sliding wheels (11, 12) with said respective guides (13, 14), said upper guide and said lower guide being connected with respective support profiles (130, 140) that are predisposed to be mounted on said structure of said vehicle characterized in that said support profiles (130, 140) are fixed to said at least one fixed plate, each said support profile (130, 140) comprising a base surface (131, 141) predisposed to be used for connection with said respective guide (13, 14), having an opening (132, 142) that extends in a longitudinal direction of said profile (130, 140) shaping a channel predisposed to allow insertion of at least a portion of said guide (13, 14) or of at least a portion of said sliding wheels (11, 12), said rail of each said guide (13, 14) being placed at said opening (132, 142) of said respective support profile (130, 140) to allow the coupling between said profile of said rail and said grooved profile of said sliding wheels (11, 12).
A method of controlling a projectile, comprising: initiating an execution mode if a roll control authority parameter is outside of a pre-determined operating range for a projectile, wherein the execution mode includes bypassing a guidance command, and sending a modified command to execute a coning maneuver to improve control response of the projectile. initiating an execution mode if a roll control authority parameter is outside of a pre-determined operating range for a projectile, wherein the execution mode includes bypassing a guidance command, and sending a modified command to execute a coning maneuver to improve control response of the projectile.
A polyimide laminate comprising: a substrate made of a substantially gas-impermeable material; and a polyimide layer having a thickness of less than 50 μm supported by the substrate and casted thereon and which is a heat-imidized polyamic acid solution composition comprising a phosphorus compound and a polyamic acid obtained from a tetracarboxylic acid component comprising 3,3',4,4'-biphenyltetracarboxylic dianhydride as the main component and a diamine component comprising p-phenylenediamine as the main component, on the substrate. a substrate made of a substantially gas-impermeable material; and a polyimide layer having a thickness of less than 50 μm supported by the substrate and casted thereon and which is a heat-imidized polyamic acid solution composition comprising a phosphorus compound and a polyamic acid obtained from a tetracarboxylic acid component comprising 3,3',4,4'-biphenyltetracarboxylic dianhydride as the main component and a diamine component comprising p-phenylenediamine as the main component, on the substrate.
A method for adjusting a device voltage of a power storage device, wherein when the power storage device is represented as an equivalent circuit (Ec) in which a parallel circuit (Pc) constituted by a capacitive device component and a short-circuit resistance (Rp) indicating a magnitude of self-discharge of the device component is connected in series with a DC resistance (Rs) of the power storage device, the power storage device has a property that, while the power storage device is pressed under a load and the device component is charged to generate a component voltage, the component voltage lowers when the load is reduced, whereas the component voltage rises when the load is increased, and characterized in that the method comprises: a) component-voltage changing by load change (S8, S19, S24, S33) of changing the load applied to the power storage device, which is pressed under a first load and generates a first component voltage in the device component, from the first load to change the component voltage from the first component voltage. wherein when the power storage device is represented as an equivalent circuit (Ec) in which a parallel circuit (Pc) constituted by a capacitive device component and a short-circuit resistance (Rp) indicating a magnitude of self-discharge of the device component is connected in series with a DC resistance (Rs) of the power storage device, the power storage device has a property that, while the power storage device is pressed under a load and the device component is charged to generate a component voltage, the component voltage lowers when the load is reduced, whereas the component voltage rises when the load is increased, and characterized in that the method comprises: a) component-voltage changing by load change (S8, S19, S24, S33) of changing the load applied to the power storage device, which is pressed under a first load and generates a first component voltage in the device component, from the first load to change the component voltage from the first component voltage. a) component-voltage changing by load change (S8, S19, S24, S33) of changing the load applied to the power storage device, which is pressed under a first load and generates a first component voltage in the device component, from the first load to change the component voltage from the first component voltage.
Coating compositions for coating polyolefins, comprising an adhesion promoter, comprising a melt, film-forming dispersion or solution, characterized in that a polymer type A, a polyolefin or a polyolefin mixture, is present, a polymer type B, a (meth)acrylate homo- or/and copolymer comprising standard methacrylates and/or standard acrylates, is present, and a polymer type AB, a graft copolymer made of polymer type A and polymer type B, is present, and that the film-forming melt, dispersion or solution is halogen-free and acid-free, where acid-free describes at most 70 mmol of acid groups / 1 g of polymer and halogen-free describes at most 10 mmol of halogen atoms / 1 kg of polymer, and that the amount of polymer type A is from 5% by weight to 60% by weight, that the amount of polymer type B is from 5% by weight to 70% by weight, and that the amount of polymer type AB is from 5% by weight to 70% by weight, based on the entirety of polymer types A, B and AB.
Method for producing aniline or an aniline conversion product, wherein the method comprises the following steps: decarboxylating aminobenzoic acid to aniline in a reactor in the presence of a catalyst, wherein a stream containing aniline is withdrawn from the reactor; purifying a portion of the stream containing aniline withdrawn in step to obtain aniline, preferably by distillation; recirculating another portion of the stream containing aniline withdrawn in step into the reactor of step; optionally further reacting the aniline purified in step to give an aniline conversion product, wherein step particularly includes one of the following reactions: (IV-1) acid-catalyzed reaction of aniline with formaldehyde to form di- and polyamines of the diphenylmethane series; (IV-2) acid-catalyzed reaction of aniline with formaldehyde, followed by reaction with phosgene to form di- and polyisocyanates of the diphenylmethane series; (IV-3) reacting aniline to give an azo compound. decarboxylating aminobenzoic acid to aniline in a reactor in the presence of a catalyst, wherein a stream containing aniline is withdrawn from the reactor; purifying a portion of the stream containing aniline withdrawn in step to obtain aniline, preferably by distillation; recirculating another portion of the stream containing aniline withdrawn in step into the reactor of step; optionally further reacting the aniline purified in step to give an aniline conversion product, wherein step particularly includes one of the following reactions: (IV-1) acid-catalyzed reaction of aniline with formaldehyde to form di- and polyamines of the diphenylmethane series; (IV-2) acid-catalyzed reaction of aniline with formaldehyde, followed by reaction with phosgene to form di- and polyisocyanates of the diphenylmethane series; (IV-3) reacting aniline to give an azo compound. (IV-1) acid-catalyzed reaction of aniline with formaldehyde to form di- and polyamines of the diphenylmethane series; (IV-2) acid-catalyzed reaction of aniline with formaldehyde, followed by reaction with phosgene to form di- and polyisocyanates of the diphenylmethane series; (IV-3) reacting aniline to give an azo compound.
An electrolyte solution for lithium secondary batteries comprising: a lithium salt; a solvent; and a negative-electrode additive, wherein the negative-electrode additive comprises allyl(4-nitrophenyl) carbonate represented by the following Formula 1. a lithium salt; a solvent; and a negative-electrode additive, wherein the negative-electrode additive comprises allyl(4-nitrophenyl) carbonate represented by the following Formula 1.
A method for managing workload distribution in a system, the method comprising: for a set of services executed in the system, respective services comprising multiple workloads: normalising the workloads to make them comparable to one another in terms of the resources they consume or the number of VMs that they use; smoothing the normalised workloads to filter fluctuations that vary faster than the granularity of time intervals at which resource reconfigurations are performed; categorising the normalised and smoothed workloads to generate at least one workload group comprising a set of workloads for which the cost to reconfigure resources consumed by the workloads in the workload group is less than the sum of the costs to independently reconfigure the resources; and allocating each of the at least one workload group to a respective one of multiple servers of the system based on a capacity of the respective server, wherein a workload is selected to be part of a group only if it can save the reconfiguration cost if it is mixed with the workloads that are already in this group and if it does not exceed the sever capacity if selected; and wherein to determine whether two workloads, if mixed, save the reconfiguration cost, a binary representation is used, wherein, given a workload w i of T elements, a binary vector b i is composed to represent it, where b i,t = 1 if w i,t -1 < w i,t, and b i,t = 0 otherwise and for two workloads represented by two binary vectors b i and b j, the reconfiguration cost can be saved if b i ⊕ b j ≠ 0 where ⊕ is the exclusive-or operation. normalising the workloads to make them comparable to one another in terms of the resources they consume or the number of VMs that they use; smoothing the normalised workloads to filter fluctuations that vary faster than the granularity of time intervals at which resource reconfigurations are performed; categorising the normalised and smoothed workloads to generate at least one workload group comprising a set of workloads for which the cost to reconfigure resources consumed by the workloads in the workload group is less than the sum of the costs to independently reconfigure the resources; and allocating each of the at least one workload group to a respective one of multiple servers of the system based on a capacity of the respective server, wherein a workload is selected to be part of a group only if it can save the reconfiguration cost if it is mixed with the workloads that are already in this group and if it does not exceed the sever capacity if selected; and wherein to determine whether two workloads, if mixed, save the reconfiguration cost, a binary representation is used, wherein, given a workload w i of T elements, a binary vector b i is composed to represent it, where b i,t = 1 if w i,t -1 < w i,t, and b i,t = 0 otherwise and for two workloads represented by two binary vectors b i and b j, the reconfiguration cost can be saved if b i ⊕ b j ≠ 0 where ⊕ is the exclusive-or operation.
A mobile terminal with two casings (A, B) connected so as to be relatively rotatable on a predetermined opening/closing axis so as to be openable from and closable to each other, the mobile terminal comprising: two display parts (1A, 1B), each one of the display parts (1A, 1B) being provided on one of the two casings (A, B); a detector that is configured to detect an attitude of at least one of the two casings and an opening/closing angle between the casings; an execution section capable of executing a first application; and a controller that is configured to display, when said execution section executes the first application, a view of the first application on said display parts in a display style according to a detection result detected by said detector, characterized in that said controller is configured to obtain, based on the detection result detected by said detector, an orientation and an inclination of an imaginary plane parallel to the opening/closing axis between the casings and passing through end sides of the casings remote from the opening/closing axis, and to adjust the display style according to the orientation and the inclination of the imaginary plane. two display parts (1A, 1B), each one of the display parts (1A, 1B) being provided on one of the two casings (A, B); a detector that is configured to detect an attitude of at least one of the two casings and an opening/closing angle between the casings; an execution section capable of executing a first application; and a controller that is configured to display, when said execution section executes the first application, a view of the first application on said display parts in a display style according to a detection result detected by said detector, characterized in that said controller is configured to obtain, based on the detection result detected by said detector, an orientation and an inclination of an imaginary plane parallel to the opening/closing axis between the casings and passing through end sides of the casings remote from the opening/closing axis, and to adjust the display style according to the orientation and the inclination of the imaginary plane.
Process for preparing 3,4-dichloro-N-(2-cyanophenyl)-5-isothiazolecarboxamide of the formula by a) reacting in an organic solvent selected from the group consisting of toluene, o-xylene, m-xylene and p-xylene in a first step 3,4-dichloroisothiazole-5-carbonyl chloride of the formula with anthranilamide of the formula and b) subsequently dehydrating in a second step (b), which is carried out as one-pot reaction, i.e. without isolation of the intermediate of the formula (N-[2-(aminocarbonyl)phenyl]-3,4-dichloro-5-isothiazolecarboxamide) with a dehydrating agent, characterized in that the workup comprises the steps c) aqueous work-up with an inorganic base (quenching) (c), wherein the base is selected from the group consisting of sodium carbonate, potassium carbonate, sodium hydroxide, and potassium hydroxide, d) degassing of the quenched reaction mixture (d), e) adjustment of pH of the reaction mixture (e), and f) filtration and isolation of the product (f). a) reacting in an organic solvent selected from the group consisting of toluene, o-xylene, m-xylene and p-xylene in a first step 3,4-dichloroisothiazole-5-carbonyl chloride of the formula with anthranilamide of the formula and b) subsequently dehydrating in a second step (b), which is carried out as one-pot reaction, i.e. without isolation of the intermediate of the formula (N-[2-(aminocarbonyl)phenyl]-3,4-dichloro-5-isothiazolecarboxamide) with a dehydrating agent, characterized in that the workup comprises the steps c) aqueous work-up with an inorganic base (quenching) (c), wherein the base is selected from the group consisting of sodium carbonate, potassium carbonate, sodium hydroxide, and potassium hydroxide, d) degassing of the quenched reaction mixture (d), e) adjustment of pH of the reaction mixture (e), and f) filtration and isolation of the product (f).
A vibration type actuator comprising: a vibrator (50, 60, 501) including an electrical-mechanical energy conversion element, and an elastic member (52, 62, 521) to which the electrical-mechanical energy conversion element is fixed and including a protrusion (59, 69, 591), the vibrator being configured to generate an elliptic movement in the protrusion (59, 69, 591); and a driven body configured to contact the protrusion (59, 69, 591) and moved relatively to the vibrator (50, 60, 501), wherein the protrusion (59, 69, 591) includes a contact portion (56, 66, 561) having a contact surface (57, 67, 571) contacting the driven body, a continuous side wall portion (54, 64, 541) protruding with respect to one end surface of the elastic member (52, 62, 521) and forming a hollow structure, and a first connection portion (51, 61, 511) connecting the contact portion (56, 66, 561) and the side wall portion (54, 64, 541) and exhibiting flexibility in a direction normal to the contact surface (57, 67, 571), wherein the elastic member (52, 62, 521) comprises a second connection portion (53, 63, 531) between the side wall portion (54, 64, 541) and a portion of the elastic member (52, 62, 521), and wherein a thickness of the second connection portion (53, 63, 531) is thinner than the portion of the elastic member (52, 62, 521). a vibrator (50, 60, 501) including an electrical-mechanical energy conversion element, and an elastic member (52, 62, 521) to which the electrical-mechanical energy conversion element is fixed and including a protrusion (59, 69, 591), the vibrator being configured to generate an elliptic movement in the protrusion (59, 69, 591); and a driven body configured to contact the protrusion (59, 69, 591) and moved relatively to the vibrator (50, 60, 501), wherein the protrusion (59, 69, 591) includes a contact portion (56, 66, 561) having a contact surface (57, 67, 571) contacting the driven body, a continuous side wall portion (54, 64, 541) protruding with respect to one end surface of the elastic member (52, 62, 521) and forming a hollow structure, and a first connection portion (51, 61, 511) connecting the contact portion (56, 66, 561) and the side wall portion (54, 64, 541) and exhibiting flexibility in a direction normal to the contact surface (57, 67, 571), wherein the elastic member (52, 62, 521) comprises a second connection portion (53, 63, 531) between the side wall portion (54, 64, 541) and a portion of the elastic member (52, 62, 521), and wherein a thickness of the second connection portion (53, 63, 531) is thinner than the portion of the elastic member (52, 62, 521).
A pump thrombosis detection system comprising: a transducer configured to generate a signal representative of a mechanical wave from a mechanical circulatory support device; and processing circuitry communicatively coupled to the transducer, wherein the processing circuitry is configured to: identify a first portion of the signal representative of at least one harmonic of the mechanical wave, normalize, based on a second portion of the signal, the first portion, determine, based on the normalized first portion, an indication of pump thrombosis and, based on the indication of pump thrombosis, control the pump thrombosis detection system to at least one of generate an alert or initiate an intervention. a transducer configured to generate a signal representative of a mechanical wave from a mechanical circulatory support device; and processing circuitry communicatively coupled to the transducer, wherein the processing circuitry is configured to: identify a first portion of the signal representative of at least one harmonic of the mechanical wave, normalize, based on a second portion of the signal, the first portion, determine, based on the normalized first portion, an indication of pump thrombosis and, based on the indication of pump thrombosis, control the pump thrombosis detection system to at least one of generate an alert or initiate an intervention. identify a first portion of the signal representative of at least one harmonic of the mechanical wave, normalize, based on a second portion of the signal, the first portion, determine, based on the normalized first portion, an indication of pump thrombosis and, based on the indication of pump thrombosis, control the pump thrombosis detection system to at least one of generate an alert or initiate an intervention.