mhurhangee/patent-ind-claim-en huggingface dataset:
A process for making a copolymer, which process comprises: a) providing a reaction vessel containing a non-homopolymerizable olefinic monomer heated to a temperature of at least 100 °C; and b) feeding one or more added olefinic monomers into the non-homopolymerizable olefinic monomer in the presence of a free radical initiator to form a copolymer of the added olefinic and non-homopolymerizable olefinic monomers wherein the term "non-homopolymerizable olefinic monomer" means that a neat solution of the monomer may be held at a temperature of at least 100 °C for at least two hours without forming increasing quantities of homopolymer, and wherein the term "olefinic monomers" means monomers containing ethylenic unsaturation. a) providing a reaction vessel containing a non-homopolymerizable olefinic monomer heated to a temperature of at least 100 °C; and b) feeding one or more added olefinic monomers into the non-homopolymerizable olefinic monomer in the presence of a free radical initiator to form a copolymer of the added olefinic and non-homopolymerizable olefinic monomers wherein the term "non-homopolymerizable olefinic monomer" means that a neat solution of the monomer may be held at a temperature of at least 100 °C for at least two hours without forming increasing quantities of homopolymer, and wherein the term "olefinic monomers" means monomers containing ethylenic unsaturation.
A method for the production of a metal-organic framework compound, in which at least one metal salt comprising a metal cation selected from the group consisting of the transition metals and Al as well as combinations thereof is reacted with a linker compound, wherein the reaction is conducted at a pressure of less than 1.5 bar in aqueous solution, characterized in that the linker compound is an isophthalate or a derivate thereof, wherein the linker compound has a structure according to the general formula 2: wherein the groups R1 to R4 are independently from each other selected from hydrogen, hydroxyl, nitro, amino, methyl, ether and halide groups as well as combinations thereof.
A dipeptidyl peptidase-4 inhibitor or a pharmaceutically acceptable salt thereof, for use in the topical eye treatment and/or prevention of a retinal neurodegenerative disease, wherein the dipeptidyl peptidase-4 inhibitor is selected from the group consisting of sitagliptin, saxagliptin, vildagliptin, anagliptin, teneligliptin, gemigliptin, its pharmaceutically acceptable salts, and mixtures thereof.
A vision system for a vehicle comprising an optical unit and a data processing device , said optical unit comprising - a light source arranged on an emitting side , adapted to emit a light beam to a scanned surface in the environment of the vehicle ; - at least one light deflection device arranged on a receiving side comprising an array of light deflection elements , wherein each light deflection element is adapted to redirect light which is incident on said light deflection element from the scanned surface , and to change the direction of the redirected light between at least a first deflection direction and a second deflection direction; - a light sensing device arranged on the receiving side to sense light redirected from the light deflection device in said first deflection direction; - said data processing device being adapted to process the data provided by said light sensing device ; characterized in that - said vision system comprises a light intensity measurement section arranged to sense light redirected from the light deflection device in the second deflection direction and to perform radiometric measurement for estimation of the intensity level of background light in the scene entering the optical unit , wherein the intensity level of the background radiation is an overall background light intensity value; and - the data processing device is adapted to control the light deflection device and/or the light sensing device based on the radiometric measurement from the light intensity measurement section . - a light source arranged on an emitting side , adapted to emit a light beam to a scanned surface in the environment of the vehicle ; - at least one light deflection device arranged on a receiving side comprising an array of light deflection elements , wherein each light deflection element is adapted to redirect light which is incident on said light deflection element from the scanned surface , and to change the direction of the redirected light between at least a first deflection direction and a second deflection direction; - a light sensing device arranged on the receiving side to sense light redirected from the light deflection device in said first deflection direction; - said data processing device being adapted to process the data provided by said light sensing device ; characterized in that - said vision system comprises a light intensity measurement section arranged to sense light redirected from the light deflection device in the second deflection direction and to perform radiometric measurement for estimation of the intensity level of background light in the scene entering the optical unit , wherein the intensity level of the background radiation is an overall background light intensity value; and - the data processing device is adapted to control the light deflection device and/or the light sensing device based on the radiometric measurement from the light intensity measurement section .
A method of sensing an operating status of a defibrillator having both of a fault indicator and a power supply indicator, comprising the steps of: providing a monitoring device disposed adjacent the defibrillator, the monitoring device including a fault indicator sensor disposed adjacent the defibrillator fault indicator and operable to detect an activation of the fault indicator, a power sensor disposed adjacent the defibrillator power supply indicator and operable to detect an activation of the power supply indicator, a hardware processor in electrical communication with both of the fault indicator sensor and the power sensor, and an output in communication with the hardware processor for providing a signal indicative of the defibrillator operating status; sensing a lack of an activation of the fault indicator by the fault indicator sensor for a predetermined period of time; second sensing a lack of the power supply indicator by the power sensor for a second predetermined period of time which corresponds to a scheduled self-test activation time of the defibrillator; and generating a defibrillator failure operating status output signal responsive to both of the sensing and the second sensing steps. providing a monitoring device disposed adjacent the defibrillator, the monitoring device including a fault indicator sensor disposed adjacent the defibrillator fault indicator and operable to detect an activation of the fault indicator, a power sensor disposed adjacent the defibrillator power supply indicator and operable to detect an activation of the power supply indicator, a hardware processor in electrical communication with both of the fault indicator sensor and the power sensor, and an output in communication with the hardware processor for providing a signal indicative of the defibrillator operating status; sensing a lack of an activation of the fault indicator by the fault indicator sensor for a predetermined period of time; second sensing a lack of the power supply indicator by the power sensor for a second predetermined period of time which corresponds to a scheduled self-test activation time of the defibrillator; and generating a defibrillator failure operating status output signal responsive to both of the sensing and the second sensing steps.
A cooking apparatus comprising: a cooking chamber for receiving food, the cooking chamber being at least partly delimited by a base and a sidewall upstanding from the base; a heating system ; an air circulation system ; an air delivery vent through which air heated by the heating system is moveable into the cooking chamber by the air circulation system, the air delivery vent being provided at least at one or more sidewall vent positions of the sidewall, each of the one or more sidewall vent positions being elevated relative to the base; and at least one air guide member (120A, 120B; 122A, 122B) arranged or arrangeable in the cooking chamber to guide the heated air delivered into the cooking chamber from said one or more sidewall vent positions downwardly towards the base, characterised in that the sidewall comprises a rear portion and a front portion facing the rear portion, the air delivery vent being provided at least at the rear portion, and the at least one air guide member extending between the rear portion and the front portion. a cooking chamber for receiving food, the cooking chamber being at least partly delimited by a base and a sidewall upstanding from the base; a heating system ; an air circulation system ; an air delivery vent through which air heated by the heating system is moveable into the cooking chamber by the air circulation system, the air delivery vent being provided at least at one or more sidewall vent positions of the sidewall, each of the one or more sidewall vent positions being elevated relative to the base; and at least one air guide member (120A, 120B; 122A, 122B) arranged or arrangeable in the cooking chamber to guide the heated air delivered into the cooking chamber from said one or more sidewall vent positions downwardly towards the base, characterised in that the sidewall comprises a rear portion and a front portion facing the rear portion, the air delivery vent being provided at least at the rear portion, and the at least one air guide member extending between the rear portion and the front portion.
Vehicle comprising on each of its lateral sides, a front wheel provided with a rim , a front leg and a lateral spar showing a front end, at least one front leg is fixed to the front end of a lateral spar by means of an upper intermediate component showing two ends, the said upper intermediate component is inclined so that its end fixed to the lateral spar is arranged lower than its end fixed to the front leg , the vehicle further comprising a front crossmember extending according to the transverse management of the vehicle and a lower intermediate component showing two ends, one of the ends of which is fixed to the front end of the lateral spar and one of its ends is fixed to the said front crosspiece , wherein the lower intermediate component is inclined so that its end fixed to the lateral spar is arranged above its end fixed to the front crosspiece
Method for gasifying biomass, wherein the biomass as raw material is conveyed into a gasification reactor via a supply device ; the gasification reactor has a pyrolysis unit , an oxidation unit and a reduction unit ; the raw material in the pyrolysis unit is heated, with the result that it is degassed and converted into the pyrolysis products; the pyrolysis products are conveyed directly into the oxidation unit , in which they are burnt while a gasification agent is supplied; the oxidation products arrive directly in the reduction unit , in which they are converted into product gas ; the product gas is discharged from the gasification reactor via a discharge pipe ; and the product gas is, at least in part, used to heat the raw material in the pyrolysis unit ; characterized in that the raw material in the pyrolysis unit is completely degassed and converted into the pyrolysis products, for which the pyrolysis takes place at a temperature in the range of from 550°C to 800°C.
A vibration detection instrument assembly comprising a vibration detection instrument having a body part , which is provided with a support surface and an attachment screw extending from the support surface in the direction of its normal, by means of which the vibration detection instrument is assemblable to a device intended to be monitored, which vibration detection instrument comprises a vibration sensor (30, 30.1,30.2,30.3) configured to detect vibration at least in a direction deviating from longitudinal axis of the attachment screw , the vibration detection instrument assembly comprising a deformable base part arranged at least partly against the support surface of the body part , characterized in that the vibration detection instrument assembly comprises a direction indication means which is arranged to indicate the direction of the vibration sensor (30, 30.1,30.2,30.3) configured to detect vibration at least in a direction deviating from the longitudinal axis of the screw .
A method of preparing a positive electrode active material, the method comprising: Primary sintering step: forming a pre-sintered product by mixing a transition metal precursor represented by Formula 1 or Formula 2 having a nickel content of 70 atm% or more and a lithium raw material and performing primary sintering in a temperature range of 580°C to 680°C; and Secondary sintering step: forming a lithium composite transition metal oxide by performing secondary sintering on the pre-sintered product at a temperature that is 100°C to 200°C higher than the primary sintering temperature, wherein the primary sintering is performed such that a ratio of a spinel phase of the pre-sintered product is in a range of 7% to 16%: [Formula 1] Ni a Co b Mn c (OH) 2 [Formula 2] Ni a Co b Mn c OOH wherein, in Formula 1 and Formula 2, 0.7≤a<1, 0.01≤b<0.3, and 0.01≤c<0.3. Primary sintering step: forming a pre-sintered product by mixing a transition metal precursor represented by Formula 1 or Formula 2 having a nickel content of 70 atm% or more and a lithium raw material and performing primary sintering in a temperature range of 580°C to 680°C; and Secondary sintering step: forming a lithium composite transition metal oxide by performing secondary sintering on the pre-sintered product at a temperature that is 100°C to 200°C higher than the primary sintering temperature, wherein the primary sintering is performed such that a ratio of a spinel phase of the pre-sintered product is in a range of 7% to 16%: [Formula 1] Ni a Co b Mn c (OH) 2 [Formula 2] Ni a Co b Mn c OOH wherein, in Formula 1 and Formula 2, 0.7≤a<1, 0.01≤b<0.3, and 0.01≤c<0.3.
A method associated with a M2M application provider, comprising: receiving a unique reference to a preliminary M2M ID, PMI, of a M2M device; and registering the M2M device at a M2M ID provider, MIP, by using an application key and authorization service, K/AS; replacing the PMI with a M2M ID, MI, wherein the MI is generated by the MIP; sending, to the K/AS, a session request associated with the MI; receiving, from the K/AS, an identifier associated with the MI; and establishing secure communication with the M2M device using the identifier. receiving a unique reference to a preliminary M2M ID, PMI, of a M2M device; and registering the M2M device at a M2M ID provider, MIP, by using an application key and authorization service, K/AS; replacing the PMI with a M2M ID, MI, wherein the MI is generated by the MIP; sending, to the K/AS, a session request associated with the MI; receiving, from the K/AS, an identifier associated with the MI; and establishing secure communication with the M2M device using the identifier.
A method of inspecting data traffic in a telecommunications network, the method comprising: a node (210; 220) of the telecommunications network receiving data packets of a flow; the node (210; 220) forwarding the received data packets of the flow to a downstream node (220; 230) of the telecommunications network; the node (210; 220) taking a decision whether to perform inspection of a payload section of at least one data packet of the flow at the node (210; 220) to classify the flow, said decision taken by the node (210; 220) being based on a capacity of the node (210;220) to perform said inspection at the node (210; 220); the node (210; 220) indicating a result of said decision to the downstream node (220; 230); in response to said decision being to perform said inspection at the node (210; 220), the node performing said inspection to obtain a partial classification of the flow; and the node (210; 220) indicating the partial classification of the flow to the downstream node (220; 230). a node (210; 220) of the telecommunications network receiving data packets of a flow; the node (210; 220) forwarding the received data packets of the flow to a downstream node (220; 230) of the telecommunications network; the node (210; 220) taking a decision whether to perform inspection of a payload section of at least one data packet of the flow at the node (210; 220) to classify the flow, said decision taken by the node (210; 220) being based on a capacity of the node (210;220) to perform said inspection at the node (210; 220); the node (210; 220) indicating a result of said decision to the downstream node (220; 230); in response to said decision being to perform said inspection at the node (210; 220), the node performing said inspection to obtain a partial classification of the flow; and the node (210; 220) indicating the partial classification of the flow to the downstream node (220; 230).
A composite pressure receptacle comprising an inner liner , an outer composite shell having an inner and an outer surface, and comprising an inlet/outlet system , wherein the inlet/outlet system comprises - a circular collar located circumferentially between the inner liner and the outer composite shell , said collar being provided with a recess in the part of its inner diameter, - an annular disc having a shape which fits into the recess of the circular collar, - a circular plug with a central opening provided with a thread suitable for engaging a valve or a fitting, and wherein the outer surface of the plug comprises a first portion or the surface located closest to the opening of the inlet/outlet system to the outside, a second portion adjacent to the first portion, and a third portion adjacent to the second portion, wherein the first portion comprises a circumferential recess, the second portion is provided with a fixing means to ensure the fixing of the plug in the receptacle and allowing it to withstand pressure loads, and the third part includes at least one groove for insertion of a sealing element , characterized in that - the recess in the collar is adjacent to the outer composite shell; - the circular collar and the annular disc are configured to interact with the inner surface of the outer composite shell , and - the third part of the plug has a larger diameter than the second part of the plug , thereby forming the fitting means; the annular disc adjoins the second part of the plug ; the recess in the first part of the plug has a smaller diameter than the second part of the plug , and receives the end parts of the outer composite shell . - a circular collar located circumferentially between the inner liner and the outer composite shell , said collar being provided with a recess in the part of its inner diameter, - an annular disc having a shape which fits into the recess of the circular collar, - a circular plug with a central opening provided with a thread suitable for engaging a valve or a fitting, and wherein the outer surface of the plug comprises a first portion or the surface located closest to the opening of the inlet/outlet system to the outside, a second portion adjacent to the first portion, and a third portion adjacent to the second portion, wherein the first portion comprises a circumferential recess, the second portion is provided with a fixing means to ensure the fixing of the plug in the receptacle and allowing it to withstand pressure loads, and the third part includes at least one groove for insertion of a sealing element , characterized in that - the recess in the collar is adjacent to the outer composite shell; - the circular collar and the annular disc are configured to interact with the inner surface of the outer composite shell , and - the third part of the plug has a larger diameter than the second part of the plug , thereby forming the fitting means; the annular disc adjoins the second part of the plug ; the recess in the first part of the plug has a smaller diameter than the second part of the plug , and receives the end parts of the outer composite shell .
A control entity configured to connect to at least a first access node (ANd1) and at least a second access node (ANd2, ANd3, ANd4), wherein the control entity is configured to a. instruct the second access node (ANd2, ANd3, ANd4) to share an interference information with the first access node (ANd1), wherein the interference is caused by the second access node (ANd2, ANd3, ANd4) to users scheduled by the first access node (ANd1), b. instruct the first access node (ANd1) to calculate a Signal-to-Interference-plus-Noise Ratio, SINR, value based on the interference information from the second access node (ANd2, ANd3, ANd4), and c. instruct the first access node (ANd1) to choose a modulation and coding scheme, MCS, for each user scheduled by the first access node based on the SINR value. a. instruct the second access node (ANd2, ANd3, ANd4) to share an interference information with the first access node (ANd1), wherein the interference is caused by the second access node (ANd2, ANd3, ANd4) to users scheduled by the first access node (ANd1), b. instruct the first access node (ANd1) to calculate a Signal-to-Interference-plus-Noise Ratio, SINR, value based on the interference information from the second access node (ANd2, ANd3, ANd4), and c. instruct the first access node (ANd1) to choose a modulation and coding scheme, MCS, for each user scheduled by the first access node based on the SINR value.
Magnetic coil for switching a solenoid valve, having a substantially cylindrical coil outer surface , wherein the magnetic coil on its outer surface has a cooling structure which enlarges the outer surface, the cooling structure is provided as a passive heat sink which has cooling fins and is formed separately from the outer surface of the magnetic coil , the passive heat sink has a hollow cylindrical shape and the cooling fins disposed on the outer surface of the heat sink extend in the circumferential direction of the heat sink and are mutually spaced apart in the longitudinal direction of the heat sink and are interrupted by at least one longitudinal slot , in particular by two diametrically disposed longitudinal slots , characterized in that the inner dimension of the hollow-cylindrical passive heat sink is smaller than an outer dimension of the magnetic coil , so that the passive heat sink during disposal on the coil outer surface can be press-fitted onto the latter, and the at least one longitudinal slot widens in the process. the cooling structure is provided as a passive heat sink which has cooling fins and is formed separately from the outer surface of the magnetic coil , the passive heat sink has a hollow cylindrical shape and the cooling fins disposed on the outer surface of the heat sink extend in the circumferential direction of the heat sink and are mutually spaced apart in the longitudinal direction of the heat sink and are interrupted by at least one longitudinal slot , in particular by two diametrically disposed longitudinal slots , characterized in that the inner dimension of the hollow-cylindrical passive heat sink is smaller than an outer dimension of the magnetic coil , so that the passive heat sink during disposal on the coil outer surface can be press-fitted onto the latter, and the at least one longitudinal slot widens in the process.