mhurhangee/ep-ind-claims huggingface dataset:
An optical signal receiver comprising: an optical resonator configured to receive an arriving optical signal and to emit an output optical signal in response to receiving the arriving optical signal, the optical resonator being further configured to transform phase transitions corresponding to phase modulation of the arriving optical signal into intensity modulation of the output optical signal; an opto-electrical converter configured to convert the output optical signal into an electrical signal; a pulse detector configured to detect pulses in the electrical signal indicative of the phase transitions in the arriving optical signal; and characterized by: a memory configured to record timing information associated with the pulses detected by the pulse detector. an optical resonator configured to receive an arriving optical signal and to emit an output optical signal in response to receiving the arriving optical signal, the optical resonator being further configured to transform phase transitions corresponding to phase modulation of the arriving optical signal into intensity modulation of the output optical signal; an opto-electrical converter configured to convert the output optical signal into an electrical signal; a pulse detector configured to detect pulses in the electrical signal indicative of the phase transitions in the arriving optical signal; and characterized by: a memory configured to record timing information associated with the pulses detected by the pulse detector.
A crosslinkable composition comprising: A) at least one polymerizable monomer or a mixture of polymerizable monomers or a mixture of monomers and polymerizable macromonomers bearing at least one polymerizable C=C function of the acrylate, methacrylate, maleate, fumarate, itaconate, citraconate, styrenic or vinylic type; B) at least one polyol selected from oligoglycerols, linear, branched and hyperbranched polyglycerols, or a mixture of hyperbranched polyglycerol and of a polyol selected from the oligoglycerols, and the linear, branched and hyperbranched polyglycerols, comprising on average more than 1 hydroxyl group functionalized with a group bearing a polymerizable C=C function of the isocyanatoalkyl(meth)acrylate, maleate, fumarate, itaconate, citraconate, styrenic or vinylic type; C) a radical initiator or a mixture of radical initiators that are able to initiate polymerization by thermal, redox or photochemical routes; and D) optionally at least one additive selected from antioxidants, agents for adjusting the physicochemical properties, agents for promoting, modulating and/or controlling permeability to oxygen, plasticizers, moistening agents, lubricants, viscosity modifiers, compatibilizers, colorants, filtering agents, antimicrobial agents, therapeutic agents and agents against bacterial biofilms. A) at least one polymerizable monomer or a mixture of polymerizable monomers or a mixture of monomers and polymerizable macromonomers bearing at least one polymerizable C=C function of the acrylate, methacrylate, maleate, fumarate, itaconate, citraconate, styrenic or vinylic type; B) at least one polyol selected from oligoglycerols, linear, branched and hyperbranched polyglycerols, or a mixture of hyperbranched polyglycerol and of a polyol selected from the oligoglycerols, and the linear, branched and hyperbranched polyglycerols, comprising on average more than 1 hydroxyl group functionalized with a group bearing a polymerizable C=C function of the isocyanatoalkyl(meth)acrylate, maleate, fumarate, itaconate, citraconate, styrenic or vinylic type; C) a radical initiator or a mixture of radical initiators that are able to initiate polymerization by thermal, redox or photochemical routes; and D) optionally at least one additive selected from antioxidants, agents for adjusting the physicochemical properties, agents for promoting, modulating and/or controlling permeability to oxygen, plasticizers, moistening agents, lubricants, viscosity modifiers, compatibilizers, colorants, filtering agents, antimicrobial agents, therapeutic agents and agents against bacterial biofilms.
A seat device for a vehicle, comprising: a seat including a seatback comprising a recessed portion, a first airbag being disposed at a side wall portion of the recessed portion which is configured to accommodate an occupant of the seat therein; and a second airbag being disposed at an outer peripheral rim portion of the recessed portion, the outer peripheral rim portion which is connected to the side wall portion; wherein the first airbag and the second airbag are configured to expand to form a support shape at the recessed portion in a seat width direction, characterized in that the first airbag and the second airbag include triangle cross sections (δ) that are tapered towards a ridgeline portion between the side wall portion and the outer peripheral rim portion of the recessed portion. a seat including a seatback comprising a recessed portion, a first airbag being disposed at a side wall portion of the recessed portion which is configured to accommodate an occupant of the seat therein; and a second airbag being disposed at an outer peripheral rim portion of the recessed portion, the outer peripheral rim portion which is connected to the side wall portion; wherein the first airbag and the second airbag are configured to expand to form a support shape at the recessed portion in a seat width direction, characterized in that the first airbag and the second airbag include triangle cross sections (δ) that are tapered towards a ridgeline portion between the side wall portion and the outer peripheral rim portion of the recessed portion.
A method of removing ozone from a gas comprising: introducing the gas from a compressor that receives and compresses outside air to an inlet of a first air treatment module, said module comprising the inlet, an adsorbent comprising a metal organic framework, and an outlet, to form a treated gas; introducing the treated gas to a second air treatment module, said module comprising an inlet, a noble metal catalyst, and an outlet and catalytically decomposing ozone in the treated gas at a temperature of 50-350 °C to form an ozone-depleted treated gas; and applying heat to the adsorbent from a heat source to regenerate the adsorbent. introducing the gas from a compressor that receives and compresses outside air to an inlet of a first air treatment module, said module comprising the inlet, an adsorbent comprising a metal organic framework, and an outlet, to form a treated gas; introducing the treated gas to a second air treatment module, said module comprising an inlet, a noble metal catalyst, and an outlet and catalytically decomposing ozone in the treated gas at a temperature of 50-350 °C to form an ozone-depleted treated gas; and applying heat to the adsorbent from a heat source to regenerate the adsorbent.
Seat comprising a sitting surface and a back surface, wherein the sitting surface and the back surface are completely covered with an arrangement, wherein the arrangement comprises a first, second and third layer, wherein - the first layer comprises a seat fabric or a leather and has a side facing a user of the seat and a side facing away from the user of the seat, wherein the side of the first layer facing away from the user is arranged on - the second layer, which comprises an absorber for moisture comprising at least two component layers, wherein the second layer has a side facing the first layer and a side facing away from the first layer, and wherein the side of the second layer facing away from the first layer is arranged on - the third layer, wherein the third layer comprises an air duct layer, characterised in that the absorber - has a first component layer facing the first layer and having a first hydrophilicity, and - has a second component layer facing the third layer and having a second hydrophilicity, wherein the second hydrophilicity is greater than the first hydrophilicity. - the first layer comprises a seat fabric or a leather and has a side facing a user of the seat and a side facing away from the user of the seat, wherein the side of the first layer facing away from the user is arranged on - the second layer, which comprises an absorber for moisture comprising at least two component layers, - the third layer, wherein the third layer comprises an air duct layer, characterised in that the absorber - has a first component layer facing the first layer and having a first hydrophilicity, and - has a second component layer facing the third layer and having a second hydrophilicity,
A method, comprising: entering, by a computing device (100; 400), an advanced configuration and power interface, ACPI, S0 state; in response to receiving (220; 330) a request to enter an ACPI S3 state, determining (230; 335) whether an always on feature is enabled, wherein, if the always on feature is not enabled, entering (240; 340) the ACPI S3 state, and wherein, if the always on feature is enabled, determining (250; 345) whether the computing device (100; 400) is within a user-defined permissible ACPI S3 state period, wherein, if the computing device (100; 400) is not within a user-defined permissible ACPI S3 state period, continuing computing device (100; 400) operation in the ACPI S0 state, and wherein, if the computing device (100; 400) is within the user-defined permissible ACPI S3 state period, setting (260; 350) a wake event and entering (240; 340) the ACPI S3 state. entering, by a computing device (100; 400), an advanced configuration and power interface, ACPI, S0 state; in response to receiving (220; 330) a request to enter an ACPI S3 state, determining (230; 335) whether an always on feature is enabled, wherein, if the always on feature is not enabled, entering (240; 340) the ACPI S3 state, and wherein, if the always on feature is enabled, determining (250; 345) whether the computing device (100; 400) is within a user-defined permissible ACPI S3 state period, wherein, if the computing device (100; 400) is not within a user-defined permissible ACPI S3 state period, continuing computing device (100; 400) operation in the ACPI S0 state, and wherein, if the computing device (100; 400) is within the user-defined permissible ACPI S3 state period, setting (260; 350) a wake event and entering (240; 340) the ACPI S3 state. wherein, if the always on feature is not enabled, entering (240; 340) the ACPI S3 state, and wherein, if the always on feature is enabled, determining (250; 345) whether the computing device (100; 400) is within a user-defined permissible ACPI S3 state period, wherein, if the computing device (100; 400) is not within a user-defined permissible ACPI S3 state period, continuing computing device (100; 400) operation in the ACPI S0 state, and wherein, if the computing device (100; 400) is within the user-defined permissible ACPI S3 state period, setting (260; 350) a wake event and entering (240; 340) the ACPI S3 state. wherein, if the computing device (100; 400) is not within a user-defined permissible ACPI S3 state period, continuing computing device (100; 400) operation in the ACPI S0 state, and wherein, if the computing device (100; 400) is within the user-defined permissible ACPI S3 state period, setting (260; 350) a wake event and entering (240; 340) the ACPI S3 state.
An electrochemical separation device comprising: a first electrode; a second electrode; a cell stack including a plurality of sub-blocks each having alternating depleting compartments and concentrating compartments disposed between the first electrode and the second electrode, each of the sub-blocks including a frame and channel portions; an internal seal formed of a first material disposed between and in contact with the channel portions between adjacent sub-blocks in the cell stack and configured to prevent leakage between depleting compartments and concentrating compartments in the adjacent sub-blocks; and an external seal formed of a second material having at least one material parameter different from the first material disposed between and in contact with the frames of the adjacent sub-blocks in the cell stack and configured to prevent leakage from an internal volume of the electrochemical separation device to outside of the electrochemical separation device; characterised in that the second material is harder than the first material. a first electrode; a second electrode; a cell stack including a plurality of sub-blocks each having alternating depleting compartments and concentrating compartments disposed between the first electrode and the second electrode, each of the sub-blocks including a frame and channel portions; an internal seal formed of a first material disposed between and in contact with the channel portions between adjacent sub-blocks in the cell stack and configured to prevent leakage between depleting compartments and concentrating compartments in the adjacent sub-blocks; and an external seal formed of a second material having at least one material parameter different from the first material disposed between and in contact with the frames of the adjacent sub-blocks in the cell stack and configured to prevent leakage from an internal volume of the electrochemical separation device to outside of the electrochemical separation device; a second electrode; a cell stack including a plurality of sub-blocks each having alternating depleting compartments and concentrating compartments disposed between the first electrode and the second electrode, each of the sub-blocks including a frame and channel portions; an internal seal formed of a first material disposed between and in contact with the channel portions between adjacent sub-blocks in the cell stack and configured to prevent leakage between depleting compartments and concentrating compartments in the adjacent sub-blocks; and an external seal formed of a second material having at least one material parameter different from the first material disposed between and in contact with the frames of the adjacent sub-blocks in the cell stack and configured to prevent leakage from an internal volume of the electrochemical separation device to outside of the electrochemical separation device; characterised in that the second material is harder than the first material.
Current source circuit, characterized in that the current source circuit contains a control apparatus (T2', T11', T12', T6, IQ1, IQ2) which controls a component of the current source circuit, which component determines the magnitude of the current which is emitted from the current source circuit, - wherein the control apparatus (T2', T11', T12', T6, IQ1, IQ2) contains a current replication path (T2', T11', T12') in which a current is caused to flow which corresponds to the current or to a specific multiple or a specific fraction of the current which is fed to the unit which is supplied with current from the current source circuit, - wherein the control apparatus (T2', T11', T12', T6, IQ1, IQ2) contains a regulation apparatus, and in that the replicated current which is produced from the current replication path (T2' T11', T12') is fed to the regulation apparatus, and - wherein the regulation apparatus is fed with a nominal current, and in that the regulation apparatus readjusts the magnitude of the current which is emitted from the current source circuit to the supplied unit such that the replicated current from the current replication path corresponds to the nominal current. - wherein the control apparatus (T2', T11', T12', T6, IQ1, IQ2) contains a current replication path (T2', T11', T12') in which a current is caused to flow which corresponds to the current or to a specific multiple or a specific fraction of the current which is fed to the unit which is supplied with current from the current source circuit, - wherein the control apparatus (T2', T11', T12', T6, IQ1, IQ2) contains a regulation apparatus, and in that the replicated current which is produced from the current replication path (T2' T11', T12') is fed to the regulation apparatus, and - wherein the regulation apparatus is fed with a nominal current, and in that the regulation apparatus readjusts the magnitude of the current which is emitted from the current source circuit to the supplied unit such that the replicated current from the current replication path corresponds to the nominal current.
A work vehicle comprising: a traveling vehicle body having traveling devices (3 and 4) and a steering device and capable of traveling in a field; a control device controlling the traveling devices (3 and 4) and the steering device such that the traveling vehicle body autonomously travels along a preset travel path; and a remote operation device outputting a traveling signal with respect to the traveling vehicle body to the control device so that the traveling vehicle body is remotely operated, characterized in that the remote operation device has at least four push buttons and the traveling vehicle body is remotely operable by two out of the four push buttons being pressed at the same time before start and/or after end of the autonomous traveling of the traveling vehicle body, and the control device executes forward and reverse movements of the traveling vehicle body by the traveling devices (3 and 4) and right and left steering of the steering device in accordance with the combination of the two push buttons pressed at the same time in the remote operation device. a traveling vehicle body having traveling devices (3 and 4) and a steering device and capable of traveling in a field; a control device controlling the traveling devices (3 and 4) and the steering device such that the traveling vehicle body autonomously travels along a preset travel path; and a remote operation device outputting a traveling signal with respect to the traveling vehicle body to the control device so that the traveling vehicle body is remotely operated, characterized in that the remote operation device has at least four push buttons and the traveling vehicle body is remotely operable by two out of the four push buttons being pressed at the same time before start and/or after end of the autonomous traveling of the traveling vehicle body, and the control device executes forward and reverse movements of the traveling vehicle body by the traveling devices (3 and 4) and right and left steering of the steering device in accordance with the combination of the two push buttons pressed at the same time in the remote operation device.
An anti-VEGF antagonist antibody, for use in a method for treating a disease having excessive angiogenesis in a subject, by administering an anti-VEGF antagonist antibody and an anti-alpha5beta1 antagonist antibody, wherein the anti-VEGF antagonist antibody and the anti-alpha5beta1 antagonist antibody are administered in concurrent treatment cycles.
A sulfoxidation method comprising: providing a hydrocarbon stream including at least one sulfur compound; providing an organohydroperoxide oxidant having the general formula HOOR, wherein R is selected from the group consisting of alkyl groups, aryl groups, alkylaryl groups and/or mixtures thereof; providing a catalyst comprising: - a metal compound represented by the general formula M (OR') 2, wherein M is titanium; R is as defined above, and wherein R' is glycerol or - a polymeric compound prepared by polymerizing R' of the compound represented by the general formula M (OR') 2 as is defined above, by reaction with a compound Q-R"-Q' wherein Q and Q' each independently is selected from the group consisting of isocyanate, anhydride, sulfonyl halide, benzyl halide, carboxylic acid halide, phosphoryl acid halide, silyl chloride and/or mixtures thereof and R" is a linking group; contacting the hydrocarbon stream with the oxidant in the presence of the catalyst, resulting in the oxidation of at least one sulfur compound. providing a hydrocarbon stream including at least one sulfur compound; providing an organohydroperoxide oxidant having the general formula HOOR, wherein R is selected from the group consisting of alkyl groups, aryl groups, alkylaryl groups and/or mixtures thereof; providing a catalyst comprising: - a metal compound represented by the general formula M (OR') 2, wherein M is titanium; R is as defined above, and wherein R' is glycerol - a metal compound represented by the general formula M (OR') 2, wherein M is titanium; R is as defined above, and wherein R' is glycerol or - a polymeric compound prepared by polymerizing R' of the compound represented by the general formula M (OR') 2 as is defined above, by reaction with a compound Q-R"-Q' wherein Q and Q' each independently is selected from the group consisting of isocyanate, anhydride, sulfonyl halide, benzyl halide, carboxylic acid halide, phosphoryl acid halide, silyl chloride and/or mixtures thereof and R" is a linking group; - a polymeric compound prepared by polymerizing R' of the compound represented by the general formula M (OR') 2 as is defined above, by reaction with a compound Q-R"-Q' wherein Q and Q' each independently is selected from the group consisting of isocyanate, anhydride, sulfonyl halide, benzyl halide, carboxylic acid halide, phosphoryl acid halide, silyl chloride and/or mixtures thereof and R" is a linking group; contacting the hydrocarbon stream with the oxidant in the presence of the catalyst, resulting in the oxidation of at least one sulfur compound.
A method for calibrating at least one temperature probe with respect to a reference temperature probe at a desired temperature, comprising the following steps: - placing the at least one temperature probe and the reference temperature probe in a container; - immersing respective sensing elements of the at least one temperature probe and of the reference temperature probe in a fluid having a solidification temperature greater than the desired temperature; - cooling the fluid down to the desired temperature, whereby the fluid is solidified; - achieving a calibration point at the desired temperature by comparing the at least one temperature probe with the reference temperature probe. - placing the at least one temperature probe and the reference temperature probe in a container; - immersing respective sensing elements of the at least one temperature probe and of the reference temperature probe in a fluid having a solidification temperature greater than the desired temperature; - cooling the fluid down to the desired temperature, whereby the fluid is solidified; - achieving a calibration point at the desired temperature by comparing the at least one temperature probe with the reference temperature probe.