mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing a methyl-substituted biphenyl compound, the process comprising: (a) providing a mixture comprising at least one methyl-substituted cyclohexylbenzene compound of the formula (I) below: (b) contacting at least part of the mixture with hydrogen in the presence of a hydrogenation catalyst under conditions effective to produce a hydrogenation reaction product comprising at least one methyl-substituted bicyclohexane compound of the formula (II) below; wherein each of m and n in formulas (I) and (II) is independently 1, 2, or 3; and (c) contacting at least part of the hydrogenation reaction product with a dehydrogenation catalyst under conditions effective to produce a dehydrogenation reaction product comprising at least one methyl-substituted biphenyl compound. (a) providing a mixture comprising at least one methyl-substituted cyclohexylbenzene compound of the formula (I) below: (b) contacting at least part of the mixture with hydrogen in the presence of a hydrogenation catalyst under conditions effective to produce a hydrogenation reaction product comprising at least one methyl-substituted bicyclohexane compound of the formula (II) below; wherein each of m and n in formulas (I) and (II) is independently 1, 2, or 3; and (c) contacting at least part of the hydrogenation reaction product with a dehydrogenation catalyst under conditions effective to produce a dehydrogenation reaction product comprising at least one methyl-substituted biphenyl compound.
A method for a sector training operation by an access point, AP, the method comprising: transmitting a beacon frame including restricted access window, RAW, assignment information, wherein the RAW assignment information includes assignment information for a sector sounding RAW and a sector reporting RAW; transmitting a plurality of No Data Protocol, NDP, type frames for sector training in the sector sounding RAW; and receiving feedback frames each including a selected sector identification, ID, from a station, STA, in the sector reporting RAW, wherein the plurality of NDP type frames are consecutively transmitted, and wherein the plurality of NDP type frames correspond to sector IDs in ascending order starting with a lowest sector ID. transmitting a beacon frame including restricted access window, RAW, assignment information, wherein the RAW assignment information includes assignment information for a sector sounding RAW and a sector reporting RAW; transmitting a plurality of No Data Protocol, NDP, type frames for sector training in the sector sounding RAW; and receiving feedback frames each including a selected sector identification, ID, from a station, STA, in the sector reporting RAW, wherein the plurality of NDP type frames are consecutively transmitted, and wherein the plurality of NDP type frames correspond to sector IDs in ascending order starting with a lowest sector ID.
An apparatus for generating nitric oxide to be integrated into a respiratory system having a breathing apparatus, an inspiratory line, and an airway flowmeter arranged on the inspiratory line, the apparatus comprising: one or more pairs of electrodes; a filter arranged downstream of the electrodes; a scavenger arranged downstream of the electrodes; one or more sensors configured to measure at least one of a flowrate of gas, an oxygen concentration upstream of the electrodes, a nitric oxide concentration downstream of the scavenger, and a nitrogen dioxide concentration downstream of the scavenger; a controller in communication with the electrodes and the one or more sensors and configured to supply an electrical signal to the electrodes that controls timing and sparking characteristics of the electrodes; and wherein the sparking characteristics of the electrodes determine a concentration of nitric oxide generated by the electrodes. one or more pairs of electrodes; a filter arranged downstream of the electrodes; a scavenger arranged downstream of the electrodes; one or more sensors configured to measure at least one of a flowrate of gas, an oxygen concentration upstream of the electrodes, a nitric oxide concentration downstream of the scavenger, and a nitrogen dioxide concentration downstream of the scavenger; a controller in communication with the electrodes and the one or more sensors and configured to supply an electrical signal to the electrodes that controls timing and sparking characteristics of the electrodes; and wherein the sparking characteristics of the electrodes determine a concentration of nitric oxide generated by the electrodes.
A process for the preparation of a viscoelastic, solid and transparent cross-linked low-molecular-weight sodium hyaluronate hydrogel, which comprises reacting an 8-40% solution of a sodium hyaluronate substrate having a mean molecular weight of from 50,000 Da to 100,000 Da in a 0.75%-1.5% aqueous solution of sodium hydroxide with an amount of 1,4-butanediol diglycidyl ether corresponding to from 180 moles to 500 moles per mole of the sodium hyaluronate substrate at a temperature of from 45 to 60 °C for a period of time from 3 to 8 hours.
A capability gateway , comprising: a receiver to receive, from a ground station associated with a satellite system , a standard protocol associated with the ground station and a non-standard alternate protocol that includes alternate service layers inserted into an inter-layer boundary of standard radio layers, the alternate service layers providing end-to-end signaling and data transport between the capability gateway and a user equipment ; and a transmitter to transmit the non-standard alternate protocol to the user equipment . a receiver to receive, from a ground station associated with a satellite system , a standard protocol associated with the ground station and a non-standard alternate protocol that includes alternate service layers inserted into an inter-layer boundary of standard radio layers, the alternate service layers providing end-to-end signaling and data transport between the capability gateway and a user equipment ; and a transmitter to transmit the non-standard alternate protocol to the user equipment .
A method of configuring Uplink Data Compression, UDC, comprising: in a case that first UDC configuration information sent by a target base station is received by a user equipment, configuring , by the user equipment, an operator-defined dictionary stored by the user equipment for a compression processing of uplink data, according to the first UDC configuration information; wherein the first UDC configuration information comprises indication information of using the operator-defined dictionary stored by the user equipment, and a target Public Land Mobile Network, PLMN, of the target base station is different from a source PLMN of a source base station of the user equipment. in a case that first UDC configuration information sent by a target base station is received by a user equipment, configuring , by the user equipment, an operator-defined dictionary stored by the user equipment for a compression processing of uplink data, according to the first UDC configuration information; wherein the first UDC configuration information comprises indication information of using the operator-defined dictionary stored by the user equipment, and a target Public Land Mobile Network, PLMN, of the target base station is different from a source PLMN of a source base station of the user equipment.
A fastening assembly kit suitable for connecting an outside water tap to an inner water drain tap through a wall bored hole, the fastening assembly kit comprising: - a fastener , comprising a hollow cylindrical or tapered body comprising: ∘ apertures at both ends of its longitudinal direction; ∘ a treaded outer surface ; ∘ a treaded inner surface ; - a wall mounted flange , wherein - the fastening assembly kit is adapted to be mounted such that ∘ the treaded inner surface of the fastener receives the wall mounted flange , and ∘ the fastener is inserted inside the wall bored hole, thereby fastening the treaded outer surface of the fastener to an inner surface of the wall bored hole, - the wall mounted flange comprises a treaded outer surface , the treaded outer surface comprising grooves , and - the treaded inner surface of the fastener comprises one or more limbs characterized in that the limbs extend in the longitudinal direction of the hollow cylindrical or tapered body, such that in mounted condition of the fastening assembly kit, the grooves of the wall mounted flange are clamped by the limbs of the fastener , thereby blocking an axial movement of the wall mounted flange . - a fastener , comprising a hollow cylindrical or tapered body comprising: ∘ apertures at both ends of its longitudinal direction; ∘ a treaded outer surface ; ∘ a treaded inner surface ; ∘ apertures at both ends of its longitudinal direction; ∘ a treaded outer surface ; ∘ a treaded inner surface ; - a wall mounted flange , - the fastening assembly kit is adapted to be mounted such that ∘ the treaded inner surface of the fastener receives the wall mounted flange , and ∘ the fastener is inserted inside the wall bored hole, thereby fastening the treaded outer surface of the fastener to an inner surface of the wall bored hole, ∘ the treaded inner surface of the fastener receives the wall mounted flange , and ∘ the fastener is inserted inside the wall bored hole, thereby fastening the treaded outer surface of the fastener to an inner surface of the wall bored hole, - the wall mounted flange comprises a treaded outer surface , the treaded outer surface comprising grooves , and - the treaded inner surface of the fastener comprises one or more limbs characterized in that the limbs extend in the longitudinal direction of the hollow cylindrical or tapered body, such that in mounted condition of the fastening assembly kit, the grooves of the wall mounted flange are clamped by the limbs of the fastener , thereby blocking an axial movement of the wall mounted flange .
A method for cooling a rolling ingot made of an aluminium alloy with typical dimensions of 250 to 800 mm in thickness, 1000 to 2000 mm in width and 2000 to 8000 mm in length, after the heat treatment for the metallurgical homogenisation of said ingot at a temperature typically comprised between 450 to 600°C depending on the alloys and before hot-rolling thereof, the cooling representing a value of between 30 and 150°C, characterised in that the cooling is carried out at a speed of between 150 and 500°C/h, with a thermal difference of less than 40°C over the entire ingot cooled from its homogenisation temperature and wherein the cooling homogeneity across the width of the ingot is controlled by: a) the control of the sprinkling width in the transverse direction of the ingot, by the number of activated nozzles or the use of screens, b) a spraying method favouring the lateral evacuation of the cooling liquid sprayed on the upper face. a) the control of the sprinkling width in the transverse direction of the ingot, by the number of activated nozzles or the use of screens, b) a spraying method favouring the lateral evacuation of the cooling liquid sprayed on the upper face.
A method for producing a chemical by continuous fermentation, comprising: a fermentation step for converting a fermentation feedstock, through fermentation by culturing a microorganism or culture cells, into a fermented liquid containing the chemical by a fermentation tank; and a membrane separation step for collecting the chemical, as a filtrate, from the fermented liquid with the use of a plurality of separation membrane modules, and returning a non-filtered liquid to a fermented tank, wherein in the membrane separation step, an intermittent filtration treatment is performed such that a filtration treatment and a filtration-stop treatment are alternately repeated with the plurality of the separation membrane modules and using the plurality of the separation membrane modules that are arranged in series, and the timing of the filtration-stop treatment in each separation membrane module is controlled during the intermittent filtration treatment. a fermentation step for converting a fermentation feedstock, through fermentation by culturing a microorganism or culture cells, into a fermented liquid containing the chemical by a fermentation tank; and a membrane separation step for collecting the chemical, as a filtrate, from the fermented liquid with the use of a plurality of separation membrane modules, and returning a non-filtered liquid to a fermented tank, wherein in the membrane separation step, an intermittent filtration treatment is performed such that a filtration treatment and a filtration-stop treatment are alternately repeated with the plurality of the separation membrane modules and using the plurality of the separation membrane modules that are arranged in series, and the timing of the filtration-stop treatment in each separation membrane module is controlled during the intermittent filtration treatment.
An ink jet ink composition comprising: one or two or more compounds A selected from the group consisting of a compound represented by Formula and a compound represented by Formula ; one or two or more compounds B selected from the group consisting of a compound represented by Formula , a compound represented by Formula , and a compound represented by Formula ; and water, (in Formula to Formula , R each independently represents NZ 2 or OZ; R' each independently represents a hydrogen atom, a sulfate group, or a sulfate; X each independently represents a hydroxyl group or a hydroxide salt; Y each independently represents a hydrogen atom, a hydroxyl group, or a hydroxide salt; and Z each independently represents a hydrogen atom or an alkyl group having 1 to 6 carbon atoms). one or two or more compounds A selected from the group consisting of a compound represented by Formula and a compound represented by Formula ; one or two or more compounds B selected from the group consisting of a compound represented by Formula , a compound represented by Formula , and a compound represented by Formula ; and water, (in Formula to Formula , R each independently represents NZ 2 or OZ; R' each independently represents a hydrogen atom, a sulfate group, or a sulfate; X each independently represents a hydroxyl group or a hydroxide salt; Y each independently represents a hydrogen atom, a hydroxyl group, or a hydroxide salt; and Z each independently represents a hydrogen atom or an alkyl group having 1 to 6 carbon atoms).
An apparatus for controlling/regulating the travel speed of a utility vehicle comprising at least one drive motor , at least one adjustable hydraulic pump for pressurizing a pressure medium, said hydraulic pump being driven by the t least one drive motor , at least one hydraulic travel motor for the propulsion of the utility vehicle, at least one control slide valve via which the pressure medium is suppliable to the at least one hydraulic travel motor , at least one further hydraulic drive that is supplied with a pressurizing agent by the at least one hydraulic pump and at least one controller by means of which an exclusive travel operation can be determined in which a drive power is only effected by the at least one hydraulic motor and not from any of the further hydraulic drives, wherein the rotational speed of the at least one hydraulic travel motor can be controlled/regulated at least via the rotational speed of the drive motor in the exclusive travel operation, wherein the rotational speed of the drive motor can be set by means of the at least one controller , and wherein the hydraulic pump is fully pivoted out. at least one drive motor , at least one adjustable hydraulic pump for pressurizing a pressure medium, said hydraulic pump being driven by the t least one drive motor , at least one hydraulic travel motor for the propulsion of the utility vehicle, at least one control slide valve via which the pressure medium is suppliable to the at least one hydraulic travel motor , at least one further hydraulic drive that is supplied with a pressurizing agent by the at least one hydraulic pump and at least one controller by means of which an exclusive travel operation can be determined in which a drive power is only effected by the at least one hydraulic motor and not from any of the further hydraulic drives, wherein the rotational speed of the at least one hydraulic travel motor can be controlled/regulated at least via the rotational speed of the drive motor in the exclusive travel operation, wherein the rotational speed of the drive motor can be set by means of the at least one controller , and wherein the hydraulic pump is fully pivoted out.
A non-transitory machine-readable storage medium comprising instructions executable by a processing resource to: acquire a request for a voltage from a sink ; determine whether the voltage is to be supplied from a battery of a source ; determine a bounded voltage range to supply to the sink according to the request for voltage and a state of the battery of the source , wherein the bounded voltage range comprises a minimum voltage value and a maximum voltage value to supply to the sink ; and where an output voltage of the battery of the source is outside the bounded voltage range, cause a converter to convert the output voltage of the battery to be within the bounded voltage range. acquire a request for a voltage from a sink ; determine whether the voltage is to be supplied from a battery of a source ; determine a bounded voltage range to supply to the sink according to the request for voltage and a state of the battery of the source , wherein the bounded voltage range comprises a minimum voltage value and a maximum voltage value to supply to the sink ; and where an output voltage of the battery of the source is outside the bounded voltage range, cause a converter to convert the output voltage of the battery to be within the bounded voltage range.
A signal transmission method, comprising: configuring , by a base station, a first resource pool in an uplink frequency; configuring , by the base station, a second resource pool in a downlink frequency, wherein the first resource pool comprises a first target resource pool, the second resource pool comprises a second target resource pool; receiving , by the base station in the first target resource pool of the first resource pool, a device-to-device, D2D, signal sent by first user equipment, UE, wherein the D2D signal comprises one or any combination of a scheduling assignment, SA, signal, a D2D data signal, or a D2D discovery signal; and sending , by the base station, the D2D signal to second UE in the second target resource pool of the second resource pool, wherein the first target resource pool is corresponding to the second target resource pool, and the D2D signal received by the base station in the first target resource pool is sent to the second UE in the second target resource pool, so that the second UE receives the D2D signal in the second resource pool according to a correspondence between the first target resource pool and the second target resource pool; and wherein the first target resource pool is a first SA resource pool, a first D2D data signal resource pool, or a first D2D discovery signal resource pool; and the second target resource pool is a second SA resource pool, a second D2D data signal resource pool, or a second D2D discovery signal resource pool. configuring , by a base station, a first resource pool in an uplink frequency; configuring , by the base station, a second resource pool in a downlink frequency, wherein the first resource pool comprises a first target resource pool, the second resource pool comprises a second target resource pool; receiving , by the base station in the first target resource pool of the first resource pool, a device-to-device, D2D, signal sent by first user equipment, UE, wherein the D2D signal comprises one or any combination of a scheduling assignment, SA, signal, a D2D data signal, or a D2D discovery signal; and sending , by the base station, the D2D signal to second UE in the second target resource pool of the second resource pool, wherein the first target resource pool is corresponding to the second target resource pool, and the D2D signal received by the base station in the first target resource pool is sent to the second UE in the second target resource pool, so that the second UE receives the D2D signal in the second resource pool according to a correspondence between the first target resource pool and the second target resource pool; and wherein the first target resource pool is a first SA resource pool, a first D2D data signal resource pool, or a first D2D discovery signal resource pool; and the second target resource pool is a second SA resource pool, a second D2D data signal resource pool, or a second D2D discovery signal resource pool.
Method for managing a battery pack by means of a computer comprising a main unit (M1) and secondary units (N1-N12) connected to one another by wireless communication means, the method comprising a recurrent operation of exchanging data between the main unit (M1) and each secondary unit (N1-N12) in a predetermined order of exchange, at successive time intervals (t1-t13) contained in a determined work period (ΔT), using at least two distinct channels (C1-C12), characterized in that it comprises, over the course of each recurrent data exchange operation, steps of: - detecting a possible problem with transmitting data between the main unit (M1) and a set of at least one secondary unit (N1-N12), then, if said set is not empty, - selecting a single secondary unit (N6) from said set, taking a predetermined order of priority into account, and - retransmitting data between said single secondary unit (N6) and the main unit (M1) during a time interval (t14) contained in said work period (ΔT). - detecting a possible problem with transmitting data between the main unit (M1) and a set of at least one secondary unit (N1-N12), then, if said set is not empty, - selecting a single secondary unit (N6) from said set, taking a predetermined order of priority into account, and - retransmitting data between said single secondary unit (N6) and the main unit (M1) during a time interval (t14) contained in said work period (ΔT).
Process for preparing polyoxymethylene dimethyl ethers having ≥ 3 oxymethylene units (OME n≥3 ), comprising the steps: (i) introduction of formaldehyde, methanol and water into a reactor R and reaction to give a reaction mixture containing formaldehyde, water, methylene glycol, polyoxymethylene glycols, methanol, hemiformals, methylal (OME n=1 ) and polyoxymethylene dimethyl ethers (OME n>1 ); (ii) introduction of the reaction mixture into a reactive distillation column K1 and separation into a low boiler fraction F1 containing formaldehyde, water, methylene glycol, polyoxymethylene glycols, methanol, hemiformals, methylal (OME n=1 ) and polyoxymethylene dimethyl ethers having from 2 to 3 oxymethylene units (OME n=2-3 ) and a high boiler fraction F2 containing essentially polyoxymethylene dimethyl ethers having more than two oxymethylene units (OME n≥3 ), wherein the high boiler fraction F2 contains at least 90% by weight of polyoxymethylene dimethyl ethers having more than two oxymethylene units (OME n≥3 ). (i) introduction of formaldehyde, methanol and water into a reactor R and reaction to give a reaction mixture containing formaldehyde, water, methylene glycol, polyoxymethylene glycols, methanol, hemiformals, methylal (OME n=1 ) and polyoxymethylene dimethyl ethers (OME n>1 ); (ii) introduction of the reaction mixture into a reactive distillation column K1 and separation into a low boiler fraction F1 containing formaldehyde, water, methylene glycol, polyoxymethylene glycols, methanol, hemiformals, methylal (OME n=1 ) and polyoxymethylene dimethyl ethers having from 2 to 3 oxymethylene units (OME n=2-3 ) and a high boiler fraction F2 containing essentially polyoxymethylene dimethyl ethers having more than two oxymethylene units (OME n≥3 ), wherein the high boiler fraction F2 contains at least 90% by weight of polyoxymethylene dimethyl ethers having more than two oxymethylene units (OME n≥3 ).