mhurhangee/patent-ind-claim-en huggingface dataset:
A respiratory system for delivering a respiratory therapy to a patient, the system configured to adjust a flow rate of gases delivered to the patient according to patient inspiration and expiration, the system comprising: a flow generator with a motor for generating a gases flow; and a controller in electrical communication with one or more sensors and configured to: cause to be displayed, on a user interface of the respiratory system , an expiratory relief level setting, the setting comprising a plurality of different expiratory relief levels ; receive a user input via the user interface to increase and/or decrease an expiratory relief level ; determine a cycle of the patient inspiration and expiration based on information received from the one or more sensors ; and adjust the flow rate based in part on the cycle of the patient inspiration and expiration, wherein the adjusting is attenuated by a parameter determined based in part on a maximum and/or minimum flow rate measured by the one or more sensors during the cycle of the patient inspiration and expiration. a flow generator with a motor for generating a gases flow; and a controller in electrical communication with one or more sensors and configured to: cause to be displayed, on a user interface of the respiratory system , an expiratory relief level setting, the setting comprising a plurality of different expiratory relief levels ; receive a user input via the user interface to increase and/or decrease an expiratory relief level ; determine a cycle of the patient inspiration and expiration based on information received from the one or more sensors ; and adjust the flow rate based in part on the cycle of the patient inspiration and expiration, wherein the adjusting is attenuated by a parameter determined based in part on a maximum and/or minimum flow rate measured by the one or more sensors during the cycle of the patient inspiration and expiration. cause to be displayed, on a user interface of the respiratory system , an expiratory relief level setting, the setting comprising a plurality of different expiratory relief levels ; receive a user input via the user interface to increase and/or decrease an expiratory relief level ; determine a cycle of the patient inspiration and expiration based on information received from the one or more sensors ; and adjust the flow rate based in part on the cycle of the patient inspiration and expiration, wherein the adjusting is attenuated by a parameter determined based in part on a maximum and/or minimum flow rate measured by the one or more sensors during the cycle of the patient inspiration and expiration.
A sensor element having a sensor chip and an anisotropically conductive material , wherein the sensor chip has a. an electrically insulating carrier comprising a first side and a second side lying opposite the first side, b. at least two contact pads arranged on the first side of the electrically insulating carrier , and c. a resistance structure on the first side of the electrically insulating carrier , which extends from a first contact pad to at least one additional contact pad , wherein the resistance structure contains at least one trim structure , characterized in that an anisotropically conductive material is arranged on the first side of the electrically insulating carrier , at minimum on at least the one trim structure . a. an electrically insulating carrier comprising a first side and a second side lying opposite the first side, b. at least two contact pads arranged on the first side of the electrically insulating carrier , and c. a resistance structure on the first side of the electrically insulating carrier , which extends from a first contact pad to at least one additional contact pad , wherein the resistance structure contains at least one trim structure ,
An apparatus, comprising: a braking system for a vehicle, including: a hydraulic electronic control unit ; at least one brake unit operable for being controlled by the hydraulic electronic control unit ; a cruise control function operable for configuring the vehicle to maintain a constant speed; a pre-charge function which includes generating pressure in the at least one brake unit ; characterized in that the pre-charge function is activated by the hydraulic electronic control unit when the cruise control function is deactivated. a hydraulic electronic control unit ; at least one brake unit operable for being controlled by the hydraulic electronic control unit ; a cruise control function operable for configuring the vehicle to maintain a constant speed; a pre-charge function which includes generating pressure in the at least one brake unit ; characterized in that the pre-charge function is activated by the hydraulic electronic control unit when the cruise control function is deactivated.
A drug delivery device comprising - a cartridge holder comprising at least one guide track , - a body comprising at least one interaction member adapted and arranged to mechanically cooperate with the at least one guide track , wherein the guide track comprises a first section and a second section , forming a continuous guide track , wherein at a distal end of the first section , the first section directly passes over into the second section , wherein the path which is defined by the first section encloses an angle with the longitudinal axis of the device , wherein the angle which is enclosed by the path defined by the first section with the longitudinal axis is smaller than the angle which is enclosed by the path defined by the second section with the longitudinal axis , wherein, for connecting the cartridge holder to the body , the interaction member is configured to mechanically cooperate with the first section such that the cartridge holder is axially moved and rotated with respect to the body , wherein at the distal end of the first section the interaction member is brought into mechanical cooperation with a distal and a proximal wall of the second section , and the interaction member is configured to mechanically cooperate with the second section such that the cartridge holder is rotated with respect to the body , whereby an axial movement of the cartridge holder with respect to the body is prevented, characterized in that the cartridge holder is rotated in a first direction with respect to the body during mechanical cooperation of the interaction member with the first and second section , and the interaction member as well as the first section and the second section comprise a dimension such that the interaction member abuts the walls of the respective sections at any time during the connection operation, such that a smooth connection movement of the cartridge holder may be facilitated which further helps to increase the user comfort. - a cartridge holder comprising at least one guide track , - a body comprising at least one interaction member adapted and arranged to mechanically cooperate with the at least one guide track ,
An isolated anti-HIV antibody or antigen binding fragment thereof which binds to V1V2, wherein the antibody or antigen binding fragment thereof comprises: (i) a variable heavy chain sequence having the amino acid sequence of SEQ ID NO 172; and (ii) a variable light chain sequence having the amino acid sequence of SEQ ID NO 173. (i) a variable heavy chain sequence having the amino acid sequence of SEQ ID NO 172; and (ii) a variable light chain sequence having the amino acid sequence of SEQ ID NO 173.
An apparatus for feeding back a channel quality indicator, comprising: a feedback module , configured to feed back a channel quality indicator, CQI, to a network device; a determining module , configured to determine a feedback granularity of a CQI according to a system bandwidth, a CQI feedback mode, and antenna port quantity information specified by the network device; wherein the feedback module is configured to feed back the CQI to the network device according to the feedback granularity of the CQI, wherein in a same system bandwidth and a same CQI feedback mode, if the network device comprises at least two types of antenna port quantities and each type of antenna port quantity corresponds to a different feedback granularity, a larger antenna port quantity indicates a larger feedback granularity. a feedback module , configured to feed back a channel quality indicator, CQI, to a network device; a determining module , configured to determine a feedback granularity of a CQI according to a system bandwidth, a CQI feedback mode, and antenna port quantity information specified by the network device; wherein the feedback module is configured to feed back the CQI to the network device according to the feedback granularity of the CQI, wherein in a same system bandwidth and a same CQI feedback mode, if the network device comprises at least two types of antenna port quantities and each type of antenna port quantity corresponds to a different feedback granularity, a larger antenna port quantity indicates a larger feedback granularity.
A method for supplying cutting oil which adopts the following processes in a machine tool for cutting plural kinds of work pieces: a: setting cutting times t 1 ,...,t i ,...,t n for work pieces 1,...,i,...,n and selection of cutting oil to be used wherein n is an integer of not less than one, and i denotes a kind of the work of a i th order, b: setting quantities q 1 ,...,q i ,...,q n of the cutting oil supplied per unit time according to a cutting area of the work pieces 1,...,i,...,n, where the cutting oil selected by process a is used, c: setting a quantity q' of a fixed value supplied per unit time such that, after selection of i=i 0 with i 0 ≤n-1, in which the term V+q 1 t 1 + ... + q i t i / t 1 + ... + t i is given as a minimum value, the inequalities of q ′ ≤ V + q 1 t 1 + ... + q i 0 t i 0 / t 1 + ... + t i0 and q ′ > q 1 t 1 + ... + q n t n / t 1 + ... + t i 0 are each satisfied, and supplying the cutting oil to the cutting-oil tank by the quantity q' over period of time t 1 +...+t i0 for cutting the work pieces 1,...,i 0 , and thereafter no cutting oil is supplied to the cutting-oil tank, wherein a volume of the cutting-oil tank is given as V, and quantity of the cutting oil in the cutting oil tank before cutting is set to be zero, d: supplying the cutting oil to the cutting area with setting quantities of the cutting oil to be q 1 t 1 ,...,q i t i ,...,q n t n on cutting the work pieces 1,...,i,...,n by flowing out from the cutting-oil tank. a: setting cutting times t 1 ,...,t i ,...,t n for work pieces 1,...,i,...,n and selection of cutting oil to be used wherein n is an integer of not less than one, and i denotes a kind of the work of a i th order, b: setting quantities q 1 ,...,q i ,...,q n of the cutting oil supplied per unit time according to a cutting area of the work pieces 1,...,i,...,n, where the cutting oil selected by process a is used, c: setting a quantity q' of a fixed value supplied per unit time such that, after selection of i=i 0 with i 0 ≤n-1, in which the term V+q 1 t 1 + ... + q i t i / t 1 + ... + t i is given as a minimum value, the inequalities of q ′ ≤ V + q 1 t 1 + ... + q i 0 t i 0 / t 1 + ... + t i0 and q ′ > q 1 t 1 + ... + q n t n / t 1 + ... + t i 0 are each satisfied, and supplying the cutting oil to the cutting-oil tank by the quantity q' over period of time t 1 +...+t i0 for cutting the work pieces 1,...,i 0 , and thereafter no cutting oil is supplied to the cutting-oil tank, wherein a volume of the cutting-oil tank is given as V, and quantity of the cutting oil in the cutting oil tank before cutting is set to be zero, d: supplying the cutting oil to the cutting area with setting quantities of the cutting oil to be q 1 t 1 ,...,q i t i ,...,q n t n on cutting the work pieces 1,...,i,...,n by flowing out from the cutting-oil tank.
Method for boil detection at a heating zone of an induction hob , the method comprising the steps of: - disabling (S110) a power control mechanism of the induction hob by setting the frequency of the AC-current provided to an induction coil of the induction hob to a fixed value; - measuring (S120) values of an electrical parameter provided within the induction hob ; - interpolating (S130) the measured electrical parameter values by gathering a plurality of values of the electrical parameter within a time window and calculating the average value of said gathered plurality of values thereby obtaining interpolated electrical parameter values. - calculating (S140) a gradient measure indicative for the differential change of the interpolated electrical parameter values over time; - determining (S150) the boil point based on the calculated gradient measure. - disabling (S110) a power control mechanism of the induction hob by setting the frequency of the AC-current provided to an induction coil of the induction hob to a fixed value; - measuring (S120) values of an electrical parameter provided within the induction hob ; - interpolating (S130) the measured electrical parameter values by gathering a plurality of values of the electrical parameter within a time window and calculating the average value of said gathered plurality of values thereby obtaining interpolated electrical parameter values. - calculating (S140) a gradient measure indicative for the differential change of the interpolated electrical parameter values over time; - determining (S150) the boil point based on the calculated gradient measure.
A process for preparing precipitated silica, the process comprising: - preparing an aqueous solution of sodium silicate having a pH in a range of 10.6 to 10.8 by adding a sodium silicate solution to water at a temperature in a range of 70 degree Celsius to 160 degree Celsius; - simultaneously adding to said aqueous solution of sodium silicate maintained at a reaction temperature in a range of 70 degree Celsius to 160 degree Celsius the sodium silicate solution, water and an acid in at least two phases to obtain a reaction mixture, wherein in an initial phase the sodium silicate solution, the water and the acid is added till the sodium ion concentration of the reaction mixture is in a range of 0.13 normal to 0.57 normal and in a final phase the sodium silicate solution, the water and the acid is added till the sodium ion concentration of the reaction mixture is in a range of 0.3 to 0.9 normal; - acidifying the reaction mixture maintained at a reaction temperature in a range of 70 degree Celsius to 160 degree Celsius with the acid to a pH in a range of 3 to 4.5; - aging the reaction mixture at a temperature in a range of 70 degree Celsius to 160 degree Celsius for a time period in a range of 5 minutes to 2 hours to obtain precipitated silica; and - recovering the precipitated silica from the reaction mixture; wherein the precipitated silica has a CTAB surface area in a range of 150 to 350 m 2 /g and a BET surface area in a range of 190 to 380 m 2 /g, such that the CTAB surface area of precipitated silica is inversely proportional to sodium ion concentration in the initial phase. - preparing an aqueous solution of sodium silicate having a pH in a range of 10.6 to 10.8 by adding a sodium silicate solution to water at a temperature in a range of 70 degree Celsius to 160 degree Celsius; - simultaneously adding to said aqueous solution of sodium silicate maintained at a reaction temperature in a range of 70 degree Celsius to 160 degree Celsius the sodium silicate solution, water and an acid in at least two phases to obtain a reaction mixture, wherein in an initial phase the sodium silicate solution, the water and the acid is added till the sodium ion concentration of the reaction mixture is in a range of 0.13 normal to 0.57 normal and in a final phase the sodium silicate solution, the water and the acid is added till the sodium ion concentration of the reaction mixture is in a range of 0.3 to 0.9 normal; - acidifying the reaction mixture maintained at a reaction temperature in a range of 70 degree Celsius to 160 degree Celsius with the acid to a pH in a range of 3 to 4.5; - aging the reaction mixture at a temperature in a range of 70 degree Celsius to 160 degree Celsius for a time period in a range of 5 minutes to 2 hours to obtain precipitated silica; and - recovering the precipitated silica from the reaction mixture; wherein the precipitated silica has a CTAB surface area in a range of 150 to 350 m 2 /g and a BET surface area in a range of 190 to 380 m 2 /g, such that the CTAB surface area of precipitated silica is inversely proportional to sodium ion concentration in the initial phase.
An insulin analog conjugate, in which (i) an insulin analog having a reduced insulin titer compared to the native form, wherein an amino acid in B chain of insulin is modified by substituting one amino acid selected from the group consisting of 24th amino acid and 25th amino acid of B chain with alanine; is linked to (ii) a biocompatible material, wherein the biocompatible material is an immunoglobulin Fc region.
A coated article, wherein a coating agent is coated on the surface of a paper or film substrate, wherein the coating agent comprises an aqueous solution comprising a vinyl alcohol-based polymer having an ethylenic double bond with a saponification degree of 70 mol% or more, wherein the vinyl alcohol-based polymer is water-soluble; a molar ratio of the ethylenic double bond to the total of vinyl alcohol units and vinyl acetate units is 0.05/100 to 2/100; and a limiting viscosity [η] and a weight-average molecular weight Mw of a vinyl ester-based polymer which is produced by esterifying the vinyl alcohol-based polymer satisfy the following formulas and 4.7 ≤ logMw ≤ 6.3 0.60 < log η + 3.75 / logMw < 0.69 wherein the limiting viscosity [η] and the weight-average molecular weight Mw are measured as described in the description. the vinyl alcohol-based polymer is water-soluble; a molar ratio of the ethylenic double bond to the total of vinyl alcohol units and vinyl acetate units is 0.05/100 to 2/100; and a limiting viscosity [η] and a weight-average molecular weight Mw of a vinyl ester-based polymer which is produced by esterifying the vinyl alcohol-based polymer satisfy the following formulas and 4.7 ≤ logMw ≤ 6.3 0.60 < log η + 3.75 / logMw < 0.69 wherein the limiting viscosity [η] and the weight-average molecular weight Mw are measured as described in the description.
A composite-membrane monolith comprising: a cordierite monolith having surfaces with a surface median pore size of from 1 μm to 15 μm; a cordierite-ceramic composite membrane bonded to surfaces of the cordierite monolith and having membrane surfaces, wherein: the cordierite-ceramic composite membrane is a composite formed from a mixture comprising: cordierite particles having a cordierite median particle size smaller than the surface median pore size; and ceramic particles other than cordierite particles, the ceramic particles having a ceramic median particle size smaller than the cordierite median particle size; the membrane surfaces have a membrane median pore size of 0.3 μm or less; wherein the cordierite median particle size is from 0.8 μm to 5 μm and the ceramic median particle size is from 0.05 μm to 0.5 μm; and the weight ratio of the cordierite particles to the ceramic particles in the mixture is from 9:1 to 3:7. a cordierite monolith having surfaces with a surface median pore size of from 1 μm to 15 μm; a cordierite-ceramic composite membrane bonded to surfaces of the cordierite monolith and having membrane surfaces, the cordierite-ceramic composite membrane is a composite formed from a mixture comprising: cordierite particles having a cordierite median particle size smaller than the surface median pore size; and ceramic particles other than cordierite particles, the ceramic particles having a ceramic median particle size smaller than the cordierite median particle size; cordierite particles having a cordierite median particle size smaller than the surface median pore size; and ceramic particles other than cordierite particles, the ceramic particles having a ceramic median particle size smaller than the cordierite median particle size; the membrane surfaces have a membrane median pore size of 0.3 μm or less; wherein the cordierite median particle size is from 0.8 μm to 5 μm and the ceramic median particle size is from 0.05 μm to 0.5 μm; and the weight ratio of the cordierite particles to the ceramic particles in the mixture is from 9:1 to 3:7.
An aircraft landing gear assembly movable between a deployed condition, in which the landing gear assembly is arranged to support an aircraft on the ground, and a retracted condition for flight, the landing gear assembly including a ground lock comprising: a movably mounted first part defining a first engagement surface which defines a swept volume as the first part moves; and a movably mounted second part defining a second engagement surface , the second part being movable between: a locked condition, in which the second engagement surface is within a locking region of the swept volume for engagement with the first engagement surface to inhibit movement of the first part; and an unlocked condition, in which the second engagement surface is outside of the locking region of the swept volume, characterised by : the ground lock including an actuation device arranged to enable mechanical operation of the ground lock by a user from an operating location on the ground when the landing gear assembly is in the deployed condition. a movably mounted first part defining a first engagement surface which defines a swept volume as the first part moves; and a movably mounted second part defining a second engagement surface , the second part being movable between: a locked condition, in which the second engagement surface is within a locking region of the swept volume for engagement with the first engagement surface to inhibit movement of the first part; and an unlocked condition, in which the second engagement surface is outside of the locking region of the swept volume, characterised by : the ground lock including an actuation device arranged to enable mechanical operation of the ground lock by a user from an operating location on the ground when the landing gear assembly is in the deployed condition. a locked condition, in which the second engagement surface is within a locking region of the swept volume for engagement with the first engagement surface to inhibit movement of the first part; and an unlocked condition, in which the second engagement surface is outside of the locking region of the swept volume, characterised by : the ground lock including an actuation device arranged to enable mechanical operation of the ground lock by a user from an operating location on the ground when the landing gear assembly is in the deployed condition.
A control unit for a milk analysis apparatus , wherein the milk analysis apparatus comprises a first wireless communication device , for communication with a memory device of a configuration tag which is applicable to the milk analysis apparatus and comprises a reference sign , the reference sign being a visual marker, of a milk extracting arrangement which the milk analysis apparatus is intended to work in conjunction with, wherein the communication is made via a second wireless communication device comprised in the configuration tag ; characterized in that the control unit is configured to: retrieve configuration data of the milk extracting arrangement that the milk analysis apparatus is intended to operate in conjunction with, from the memory device of the configuration tag via the first wireless communication device ; configure the control unit , based on the retrieved configuration data of the milk extracting arrangement . retrieve configuration data of the milk extracting arrangement that the milk analysis apparatus is intended to operate in conjunction with, from the memory device of the configuration tag via the first wireless communication device ; configure the control unit , based on the retrieved configuration data of the milk extracting arrangement .