mhurhangee/patent-ind-claim-en huggingface dataset:
Sensor cleaning device for cleaning a motor vehicle sensor, wherein the sensor cleaning device exhibits: - a housing with at least one first housing inlet , wherein the at least one first housing inlet is used as a liquid inlet for letting liquid into the housing, at least one second housing inlet , wherein the at least one second housing inlet is used as a gas inlet for letting a gas into the housing and with a housing outlet opening for dispensing fluid introduced into the housing via the at least one first housing inlet and/or the at least one second housing inlet ; and - a fluid distribution device for guiding fluid, which is introduced into the housing via the at least one first housing inlet and the at least one second housing inlet , to the housing outlet opening ; - wherein the fluid distribution device exhibits a number of first distribution inlets corresponding to the number of first housing inlets and a number of first distribution outlets corresponding to at least the number of first distribution inlets ; and - wherein the fluid distribution device exhibits a number of second distribution inlets corresponding to the number of second housing inlets - wherein the fluid distribution device is insertable into the housing ; and - wherein each first distribution inlet is in fluid communication with one first housing inlet and each second distribution inlet is in fluid communication with one second housing inlet when the fluid distribution device is inserted into the housing , characterised in that the fluid distribution device exhibits a number of second distribution outlets corresponding to at least twice the number of second distribution inlets . - a housing with at least one first housing inlet , wherein the at least one first housing inlet is used as a liquid inlet for letting liquid into the housing, at least one second housing inlet , wherein the at least one second housing inlet is used as a gas inlet for letting a gas into the housing and with a housing outlet opening for dispensing fluid introduced into the housing via the at least one first housing inlet and/or the at least one second housing inlet ; and - a fluid distribution device for guiding fluid, which is introduced into the housing via the at least one first housing inlet and the at least one second housing inlet , to the housing outlet opening ; - wherein the fluid distribution device exhibits a number of first distribution inlets corresponding to the number of first housing inlets and a number of first distribution outlets corresponding to at least the number of first distribution inlets ; and - wherein the fluid distribution device exhibits a number of second distribution inlets corresponding to the number of second housing inlets - wherein the fluid distribution device is insertable into the housing ; and - wherein each first distribution inlet is in fluid communication with one first housing inlet and each second distribution inlet is in fluid communication with one second housing inlet when the fluid distribution device is inserted into the housing ,
A system for vascular draining comprising: a self-expanding venous cannula having a length of between 30 cm and 70 cm, wherein the cannula comprises an intravascular surface enclosing a hollow intravascular interior for receiving and draining an entire volume of blood from a blood vessel when the cannula is expanded in the blood vessel; and a plurality of orifices disposed in the intravascular surface, wherein a surface area of the intravascular surface consumed by the plurality of orifices is larger than at least 5% of a remaining surface area of the intravascular surface not consumed by the plurality of orifices; positioning means for positioning the cannula in the blood vessel; and pressurizing means for applying a driving pressure of between about 1 mmHg to about 60 mmHg, wherein the driving pressure initiates draining of blood via the cannula and drains the entire volume of blood in the blood vessel, wherein drainage of the blood vessel is configured to be performed over an entire outer circumference of the cannula after application of the driving pressure. a self-expanding venous cannula having a length of between 30 cm and 70 cm, wherein the cannula comprises an intravascular surface enclosing a hollow intravascular interior for receiving and draining an entire volume of blood from a blood vessel when the cannula is expanded in the blood vessel; and a plurality of orifices disposed in the intravascular surface, wherein a surface area of the intravascular surface consumed by the plurality of orifices is larger than at least 5% of a remaining surface area of the intravascular surface not consumed by the plurality of orifices; an intravascular surface enclosing a hollow intravascular interior for receiving and draining an entire volume of blood from a blood vessel when the cannula is expanded in the blood vessel; and a plurality of orifices disposed in the intravascular surface, wherein a surface area of the intravascular surface consumed by the plurality of orifices is larger than at least 5% of a remaining surface area of the intravascular surface not consumed by the plurality of orifices; positioning means for positioning the cannula in the blood vessel; and pressurizing means for applying a driving pressure of between about 1 mmHg to about 60 mmHg, wherein the driving pressure initiates draining of blood via the cannula and drains the entire volume of blood in the blood vessel, wherein drainage of the blood vessel is configured to be performed over an entire outer circumference of the cannula after application of the driving pressure.
A composite fiber comprising: a polyurethane elastomer having a glass transition temperature of 15 to 50°C as a component A, the component A constituting a core in a cross section of the fiber, and a readily soluble thermoplastic polymer as a component B, the component B covering 70% or longer of the circumference of the component A in the cross section; wherein the component B comprises at least one selected from the group consisting of a readily soluble polyester and a thermoplastic polyvinyl alcohol-based polymer copolymerized with an α-olefin having 4 or less carbon atoms in a proportion of 0.1 to 20% by mole; wherein the readily soluble polyester is substantially completely dissolved in 60 minutes or less when immersed in a 2% aqueous sodium hydroxide solution that has a temperature of 100°C at a bath ratio of 1 : 30; wherein the thermoplastic polyvinyl alcohol-based polymer is substantially completely dissolved in 60 minutes or less when immersed in hot water of 100°C at a bath ratio of 1 : 30; wherein the glass transition temperature is defined as a temperature at which the elastomer shows a peak with respect to the mechanical dynamic loss tangent (tan δ) with the mechanical dynamic loss tangent being defined as the tangent of the ratio G"/G' of the loss elastic modulus G" to the storage elastic modulus G' at a frequency of 1 Hz; wherein the composite fiber is adapted for producing a polyurethane elastomer fabric by removing the component B; and wherein the composite fiber has a single fiber fineness of 0.3 to 10 dtex. a polyurethane elastomer having a glass transition temperature of 15 to 50°C as a component A, the component A constituting a core in a cross section of the fiber, and a readily soluble thermoplastic polymer as a component B, the component B covering 70% or longer of the circumference of the component A in the cross section; wherein the component B comprises at least one selected from the group consisting of a readily soluble polyester and a thermoplastic polyvinyl alcohol-based polymer copolymerized with an α-olefin having 4 or less carbon atoms in a proportion of 0.1 to 20% by mole; wherein the readily soluble polyester is substantially completely dissolved in 60 minutes or less when immersed in a 2% aqueous sodium hydroxide solution that has a temperature of 100°C at a bath ratio of 1 : 30; wherein the thermoplastic polyvinyl alcohol-based polymer is substantially completely dissolved in 60 minutes or less when immersed in hot water of 100°C at a bath ratio of 1 : 30; wherein the glass transition temperature is defined as a temperature at which the elastomer shows a peak with respect to the mechanical dynamic loss tangent (tan δ) with the mechanical dynamic loss tangent being defined as the tangent of the ratio G"/G' of the loss elastic modulus G" to the storage elastic modulus G' at a frequency of 1 Hz; wherein the composite fiber is adapted for producing a polyurethane elastomer fabric by removing the component B; and wherein the composite fiber has a single fiber fineness of 0.3 to 10 dtex.
A process for preparing a catalyst comprising depositing a metal on a carrier prepared by: - treating one or more thermally decomposable materials in particulate form comprising potassium to reduce the total quantity of potassium in the thermally decomposable material by contacting the thermally decomposable material with a fluid, - preparing a mixture comprising the treated thermally decomposable material and a heat sinterable material selected from alumina, silica, titania, silicon carbide, silicon nitride, niobia, magnesia, zinc oxide, zirconia based compounds, or combinations thereof, and - heating the mixture to sinter the heat sinterable material and to thermally decompose the treated thermally decomposable material to form the carrier, wherein the thermally decomposable material is an organic material that has a decomposition temperature which is no greater than the sintering temperature of the heat sinterable material, and comprises an organic material and has a volume average particle size of at least 1 micron and at most 1000 microns as measured by a laser light scattering instrument, wherein the total quantity of potassium is reduced by at least 30 percent, calculated based on the weight of the potassium in the treated thermally decomposable material relative to the weight of potassium in the untreated thermally decomposable material. - treating one or more thermally decomposable materials in particulate form comprising potassium to reduce the total quantity of potassium in the thermally decomposable material by contacting the thermally decomposable material with a fluid, - preparing a mixture comprising the treated thermally decomposable material and a heat sinterable material selected from alumina, silica, titania, silicon carbide, silicon nitride, niobia, magnesia, zinc oxide, zirconia based compounds, or combinations thereof, and - heating the mixture to sinter the heat sinterable material and to thermally decompose the treated thermally decomposable material to form the carrier, wherein the thermally decomposable material is an organic material that has a decomposition temperature which is no greater than the sintering temperature of the heat sinterable material, and comprises an organic material and has a volume average particle size of at least 1 micron and at most 1000 microns as measured by a laser light scattering instrument, wherein the total quantity of potassium is reduced by at least 30 percent, calculated based on the weight of the potassium in the treated thermally decomposable material relative to the weight of potassium in the untreated thermally decomposable material.
A compound of Formula (A): wherein X 1 is CH; X 2 is S, ; Z is -C(=O)NH- or -C(=O)O-; n is 1; R 1 is alkyl, cycloalkyl, heterocycle, alkoxy, aryl, heteroaryl, halo, or amine; R 2 is H, alkyl, cycloalkyl, heterocycle, alkoxy, aryl, heteroaryl, halo, or amine; and wherein R 3 is phenyl, pyridyl, indolyl, dihydrobenzofuranyl, or benzo[d]oxazolyl. X 1 is CH; X 2 is S, ; Z is -C(=O)NH- or -C(=O)O-; n is 1; R 1 is alkyl, cycloalkyl, heterocycle, alkoxy, aryl, heteroaryl, halo, or amine; R 2 is H, alkyl, cycloalkyl, heterocycle, alkoxy, aryl, heteroaryl, halo, or amine; and
A process of preparing a thermoplastic polymer comprising E-1,1,1,4,4,4-hexafluoro-2-butene, the process comprising heating the polymer in the presence of a blowing agent comprising Z-1,1,1,4,4,4-hexafluoro-2-butene and at least one additional co-blowing agent, at a temperature sufficient to isomerize at least a portion of the Z-1,1,1,4,4,4-hexafluoro-2-butene to the E-1,1,1,4,4,4-hexafluoro-2-butene, wherein the temperature sufficient to isomerize at least a portion of the Z-1,1,1,4,4,4-hexafluoro-2-butene to the E-1,1,1,4,4,4-hexafluoro-2-butene is at least 230°C.
An organic package substrate comprising: a cavity formed within the organic package substrate ; and a package-integrated piezoelectric temperature sensing device , comprising: a base structure that is positioned in proximity to the cavity ; an input transducer coupled to the base structure , the input transducer having a first piezoelectric material to generate vibrations which are transmitted on the base structure in response to input signals being applied to the input transducer ; and an output transducer coupled to the base structure , wherein the output transducer has a second piezoelectric material to receive the vibrations and to generate output signals which are used to determine a change in ambient temperature. a cavity formed within the organic package substrate ; and a package-integrated piezoelectric temperature sensing device , comprising: a base structure that is positioned in proximity to the cavity ; an input transducer coupled to the base structure , the input transducer having a first piezoelectric material to generate vibrations which are transmitted on the base structure in response to input signals being applied to the input transducer ; and an output transducer coupled to the base structure , wherein the output transducer has a second piezoelectric material to receive the vibrations and to generate output signals which are used to determine a change in ambient temperature. a base structure that is positioned in proximity to the cavity ; an input transducer coupled to the base structure , the input transducer having a first piezoelectric material to generate vibrations which are transmitted on the base structure in response to input signals being applied to the input transducer ; and an output transducer coupled to the base structure , wherein the output transducer has a second piezoelectric material to receive the vibrations and to generate output signals which are used to determine a change in ambient temperature.
A mobile aggregate processing plant , including a mobile chassis , aggregate handling equipment mounted on the chassis and a conveyor mounted on the chassis by an adjustable mounting support for movement between a folded stored position on it's side against the chassis and an operative position at a side of the chassis , the mounting support engaging with the conveyor intermediate ends of the conveyor , characterised in that the mounting support has a lateral slide for moving the conveyor in a lateral direction.
Work train for firefighting and/or for rescuing persons and/or for maintaining a track , comprising two rail vehicles which can be moved on the track and are connected to one another, with one rail vehicle being a motor coach and the other rail vehicle being a liquid tank wagon , characterised in that a connecting area of both rail vehicles comprises a passage for persons, that the liquid tank wagon comprises a liquid tank in a lower area, and that an accessible room for persons is arranged above the liquid tank , that the liquid tank wagon comprises a vehicle frame which is supported on two rail-based running gears and carries the liquid tank , and that a pump device is arranged between the rail-based running gears below the liquid tank .
An isolated nucleic acid encoding a polypeptide comprising a sequence having at least 90% sequence identity to SEQ ID NO: 1, 2, 3, or 4.
A device for driving a plurality of motors, the device comprising: an inverter connected to a DC terminal, wherein the inverter includes upper switching elements (Sa, Sb, Sc) and lower switching elements (S'a, S'b, S'c); a multi-phase motor connected to the inverter ; a single-phase motor serially connected to the multi-phase motor ; a first capacitor (C1) and a second capacitor (C2) serially connected between both ends of the DC terminal; a first voltage detector (B1) configured to detect a DC voltage (Vdc1) of both ends of the first capacitor (C1); and a second voltage detector (B2) configured to detect a DC voltage (Vdc2) of both ends of the second capacitor (C2), wherein the number of frequencies of current input to the multi-phase motor when driving the single-phase motor and the multi-phase motor at the same speed is smaller than the number of frequencies of current input to the multi-phase motor when driving the single-phase motor and the multi-phase motor at different speeds, wherein a neutral point (na) of the multi-phase motor is connected to one end (ni) of the single-phase motor , and the other end (no) of the single-phase motor is connected to a node (n) between the first capacitor (C1) and the second capacitor (C2), and wherein, when all of the upper switching elements of the inverter are turned on, or when all of the lower switching elements of the inverter are turned on, a level of a current flowing in the single-phase motor is greater than a level of a current flowing in each phase of the multi-phase motor. an inverter connected to a DC terminal, wherein the inverter includes upper switching elements (Sa, Sb, Sc) and lower switching elements (S'a, S'b, S'c); a multi-phase motor connected to the inverter ; a single-phase motor serially connected to the multi-phase motor ; a first capacitor (C1) and a second capacitor (C2) serially connected between both ends of the DC terminal; a first voltage detector (B1) configured to detect a DC voltage (Vdc1) of both ends of the first capacitor (C1); and a second voltage detector (B2) configured to detect a DC voltage (Vdc2) of both ends of the second capacitor (C2), wherein the number of frequencies of current input to the multi-phase motor when driving the single-phase motor and the multi-phase motor at the same speed is smaller than the number of frequencies of current input to the multi-phase motor when driving the single-phase motor and the multi-phase motor at different speeds, wherein a neutral point (na) of the multi-phase motor is connected to one end (ni) of the single-phase motor , and the other end (no) of the single-phase motor is connected to a node (n) between the first capacitor (C1) and the second capacitor (C2), and wherein, when all of the upper switching elements of the inverter are turned on, or when all of the lower switching elements of the inverter are turned on, a level of a current flowing in the single-phase motor is greater than a level of a current flowing in each phase of the multi-phase motor.
A power supply control device for equipment, comprising: a power supply unit configured to input AC power and to output a DC voltage for operating a load inside the equipment; a first switch of which opening/closing is controlled by applying the DC voltage which is output by the power supply unit ; a second switch configured to be manually operated to switch over ON/OFF of the power supply for the equipment, and to achieve a first state when not manually operated and to achieve a second state when manually operated, the second switch being connected to the first switch in series, wherein the second switch is configured to reduce the DC voltage, which is output by the power supply unit , to less than a predetermined value when the first switch is closed, in the first state, and to open the first switch in the second state; and a control unit configured to close the first switch so as to reduce the DC voltage to less than the predetermined value, if the second switch is changed to the second state and thereafter changed to the first state, when the second switch is in the first state and the DC voltage is not reduced to less than the predetermined value, characterised in that the first switch includes a first coil configured to open the first switch by being energized, and a second coil configured to close the first switch by being energized. a power supply unit configured to input AC power and to output a DC voltage for operating a load inside the equipment; a first switch of which opening/closing is controlled by applying the DC voltage which is output by the power supply unit ; a second switch configured to be manually operated to switch over ON/OFF of the power supply for the equipment, and to achieve a first state when not manually operated and to achieve a second state when manually operated, the second switch being connected to the first switch in series, wherein the second switch is configured to reduce the DC voltage, which is output by the power supply unit , to less than a predetermined value when the first switch is closed, in the first state, and to open the first switch in the second state; and a control unit configured to close the first switch so as to reduce the DC voltage to less than the predetermined value, if the second switch is changed to the second state and thereafter changed to the first state, when the second switch is in the first state and the DC voltage is not reduced to less than the predetermined value, characterised in that the first switch includes a first coil configured to open the first switch by being energized, and a second coil configured to close the first switch by being energized.
A target for use in a laser desorption mass spectrometer, wherein the target has at least one surface , wherein the surface is covered at least partially with at least one layer , characterised in that the layer is a hydrogen comprising, silicon-incorporated amorphous carbon (a-C:H:Si) layer , wherein the a-C:H:Si layer comprises: • 40 at.% to 80 at.% of carbon; • 1 at.% to 20 at.% of hydrogen; and • 10 at.% to 40 at.% of silicon. • 40 at.% to 80 at.% of carbon; • 1 at.% to 20 at.% of hydrogen; and • 10 at.% to 40 at.% of silicon.