mhurhangee/patent-ind-claim-en huggingface dataset:
A method for denture restoration, comprising the steps: a) generating a first set of digital information of the mouth cavity of a person; b) designing either a customized orientation appliance or a customized temporary restoration with the aid of said first set of digital information, and producing said customized orientation appliance or said customized temporary restoration; c) generating a second set of digital information of said mouth cavity with said orientation appliance or said temporary restoration being within said mouth cavity, d) providing a temporary restoration or a final restoration with the aid of said second set of digital information, if in step c) said orientation appliance is used for generating said second set of digital information, e) generating a third set of digital information of said mouth cavity with said temporary restoration provided in step d) being within said mouth cavity, if in step c) said orientation appliance is used for generating said second set of digital information; and f) providing a final restoration with the aid of said second or third set of digital information generated with said temporary restoration being within said mouth cavity. a) generating a first set of digital information of the mouth cavity of a person; b) designing either a customized orientation appliance or a customized temporary restoration with the aid of said first set of digital information, and producing said customized orientation appliance or said customized temporary restoration; c) generating a second set of digital information of said mouth cavity with said orientation appliance or said temporary restoration being within said mouth cavity, d) providing a temporary restoration or a final restoration with the aid of said second set of digital information, if in step c) said orientation appliance is used for generating said second set of digital information, e) generating a third set of digital information of said mouth cavity with said temporary restoration provided in step d) being within said mouth cavity, if in step c) said orientation appliance is used for generating said second set of digital information; and f) providing a final restoration with the aid of said second or third set of digital information generated with said temporary restoration being within said mouth cavity.
A coenzyme Q10 fermentation process comprising the steps of: controlling oxygen consumption rate between 30-150 mmol/L·h and stabilizing the conductivity of the culture medium between 5.0-30.0 mS/cm during the fermentation process of coenzyme Q10 production strains, so as to facilitate strain growth and the start of coenzyme Q10 synthesis and accumulation; wherein the coenzyme Q10 production strains are strains of Rhodobacter sphaeroides.
An impact detection and protection system for a vehicle: characterized by : • a sensor ; • a carrier for the sensor having a first foam element and a second foam element , wherein the first foam element and the second foam element sandwich, enclose and are in mechanical contact with the sensor and the carrier is mountable to a structural element of the vehicle; • wherein the sensor comprises: ∘ at least one sensor element (3 1 , 3 2 ,...,3 M ) of a first type of the sensor is oriented along the axis (A) of the sensor , wherein the at least one sensor element (3 1 , 3 2 ,..., 3 M ) of the first type is a capacitive sensor; ∘ a plurality of sensor elements (9 1 , 9 2 ,...,9 O ) of a second type of the sensor are oriented and distributed along the axis (A) of the sensor , wherein the plurality of sensor elements (9 1 , 9 2 ,..., 9 O ) of the second type are piezoelectric sensor elements; and • a plurality of dome shaped cavities are formed in the first foam element so that each of the dome shaped cavities defines an apex which is open to the second foam element , wherein one single piezoelectric sensor element (9 1 , 9 2 ,..., 9 O ) of the plurality of sensor elements (9 1 , 9 2 ,...,9 O ) is attached to each apex . • a sensor ; • a carrier for the sensor having a first foam element and a second foam element , wherein the first foam element and the second foam element sandwich, enclose and are in mechanical contact with the sensor and the carrier is mountable to a structural element of the vehicle; • wherein the sensor comprises: ∘ at least one sensor element (3 1 , 3 2 ,...,3 M ) of a first type of the sensor is oriented along the axis (A) of the sensor , wherein the at least one sensor element (3 1 , 3 2 ,..., 3 M ) of the first type is a capacitive sensor; ∘ a plurality of sensor elements (9 1 , 9 2 ,...,9 O ) of a second type of the sensor are oriented and distributed along the axis (A) of the sensor , wherein the plurality of sensor elements (9 1 , 9 2 ,..., 9 O ) of the second type are piezoelectric sensor elements; and ∘ at least one sensor element (3 1 , 3 2 ,...,3 M ) of a first type of the sensor is oriented along the axis (A) of the sensor , wherein the at least one sensor element (3 1 , 3 2 ,..., 3 M ) of the first type is a capacitive sensor; ∘ a plurality of sensor elements (9 1 , 9 2 ,...,9 O ) of a second type of the sensor are oriented and distributed along the axis (A) of the sensor , wherein the plurality of sensor elements (9 1 , 9 2 ,..., 9 O ) of the second type are piezoelectric sensor elements; and • a plurality of dome shaped cavities are formed in the first foam element so that each of the dome shaped cavities defines an apex which is open to the second foam element , wherein one single piezoelectric sensor element (9 1 , 9 2 ,..., 9 O ) of the plurality of sensor elements (9 1 , 9 2 ,...,9 O ) is attached to each apex .
An antagonist of TLR4 for use in a method of treating an individual suffering from increased levels of plasma ammonia associated with liver disease or liver failure, when compared to a subject not suffering from liver disease.
Apparatus for air distribution, comprising a housing which provides two chambers which each have a first air passage opening and a second air passage opening , wherein a flap is arranged rotatably on the housing being provided for each first air passage opening , which can be transferred from a locked position into a non-locked position and vice versa, characterized by a push rod by means of which the two flaps are coupled under compulsion, the push rod being arranged rotatably at one end on one flap and at the other end on the other flap respectively, and an actuator which is operatively connected to one of the two flaps , each of the two flaps carrying a stud at one end and at the other end respectively, which define an axis of rotation for each flap , characterized in that each flap has two bearing pins for the respective rotatable link of the push rod , which are arranged spaced apart from one another with one of the two studs being interposed, and wherein the push rod provides a bearing eye corresponding to the bearing pins.
A hinge for pivoting a door , in particular a door of a shower partition , about an axis of rotation from a neutral position (N), wherein upon a pivotal movement of the door out of the neutral position (N) the door is displaced at a right angle and parallel to the axis of rotation , comprising: - a first and a second fitting part , wherein the first fitting part is connected to the second fitting part by way of a pivotal arm , - a rotary joint having a vertical axis of rotation and by way of which the first fitting part is mounted to the pivotal arm pivotably from the neutral position (N), - a guide on the second fitting part for movable mounting of the pivotal arm along a linear guide track , wherein the linear guide track is inclined in the direction of the axis of rotation , wherein upon a movement of the hinge out of the neutral position (N) by pivotal movement of the first fitting part relative to the second fitting part about the axis of rotation the pivotal arm is displaced along the linear guide track , wherein the first fitting part moves at a right angle and parallel to the axis of rotation relative to the second fitting part , wherein when the first fitting part is arranged on the door the door is displaced at a right angle and parallel to the axis of rotation , - at least one force storage means with a spring force acting along a longitudinal axis (LA) of the force storage means , which force storage means is arranged between the second fitting part and the pivotal arm , wherein upon a movement of the first fitting part relative to the second fitting part about the axis of rotation out of the neutral position (N) and/or back into the neutral position (N) the at least one force storage means supports or brakes a movement of the pivotal arm along the guide , characterised in that the longitudinal axis (LA) of the force storage means is arranged at an angle of between 5° and 40° relative to the axis of rotation .
A colorless composite material comprising: glass fibers; and inorganic-organic hybrid resin consisting of inorganic bonds and organic bonds, wherein the inorganic bonds are Si-O-M bonds, and M is one of Zr and Al, wherein the Si-O-M bond is the Si-O-Zr bond and the Zr is in a ratio of 2% to 8% by weight, or wherein the Si-O-M bond is the Si-O-Al bond and the Al is in a ratio of 2% to 10% by weight, assumed that the inorganic-organic hybrid resin is 100% by weight, wherein the inorganic-organic hybrid resin has a thermooptic coefficient of -5 x 10 -5 /°C ∼ +10 -5 /°C. glass fibers; and inorganic-organic hybrid resin consisting of inorganic bonds and organic bonds, wherein the inorganic bonds are Si-O-M bonds, and M is one of Zr and Al, wherein the Si-O-M bond is the Si-O-Zr bond and the Zr is in a ratio of 2% to 8% by weight, or wherein the Si-O-M bond is the Si-O-Al bond and the Al is in a ratio of 2% to 10% by weight, assumed that the inorganic-organic hybrid resin is 100% by weight, wherein the inorganic-organic hybrid resin has a thermooptic coefficient of -5 x 10 -5 /°C ∼ +10 -5 /°C.
A lawn mower comprising: a power assembly ; a cutting blade that is configured to be driven by the power assembly ; and a cover , wherein the cover comprises a main body , a rear cover pivotally connected to the rear of the main body , and a partition portion dividing the main body into a cutting cavity and a grass-collecting cavity , the partition portion comprising a baffle , and the rear cover is selectively pivotable between an open position and a closed position, and characterized in that the baffle is configured to be driven by the rear cover . a power assembly ; a cutting blade that is configured to be driven by the power assembly ; and a cover , wherein the cover comprises a main body , a rear cover pivotally connected to the rear of the main body , and a partition portion dividing the main body into a cutting cavity and a grass-collecting cavity , the partition portion comprising a baffle , and the rear cover is selectively pivotable between an open position and a closed position, and characterized in that the baffle is configured to be driven by the rear cover .
A mobile column comprising: (a) a column controller comprising at least one processor and at least one memory; (b) a base comprising a set of wheel modules that are operable to move the base ; (c) a lift post coupled to and extending upwards from the base , the lift post comprising a vertically movable portion and a lift post driver operable to raise and lower the vertically movable portion vertically along the lift post ; (d) a lift assembly coupled to the vertically movable portion and adapted to contact and support a portion of a vehicle when the vertically movable portion is raised; and (e) a detection system operable to produce information describing a lift area in which the mobile column is positioned, wherein the information comprises an image of a wheel on a vehicle within the lift area ; wherein the column controller is configured to: (i) receive a set of lift area information from the detection system; (ii) identify the wheel in the image and determine an axis of rotation of the wheel ; (iii) determine a current position of the mobile column , relative to the wheel , based on the set of lift area information; (iv) determine a destination position for the mobile column based on the current position of the mobile column , wherein the destination position is near the wheel and substantially centered on the axis of rotation of the wheel ; and (v) automatically operate the set of wheel modules to reposition the mobile column based on the destination position. (a) a column controller comprising at least one processor and at least one memory; (b) a base comprising a set of wheel modules that are operable to move the base ; (c) a lift post coupled to and extending upwards from the base , the lift post comprising a vertically movable portion and a lift post driver operable to raise and lower the vertically movable portion vertically along the lift post ; (d) a lift assembly coupled to the vertically movable portion and adapted to contact and support a portion of a vehicle when the vertically movable portion is raised; and (e) a detection system operable to produce information describing a lift area in which the mobile column is positioned, wherein the information comprises an image of a wheel on a vehicle within the lift area ; (i) receive a set of lift area information from the detection system; (ii) identify the wheel in the image and determine an axis of rotation of the wheel ; (iii) determine a current position of the mobile column , relative to the wheel , based on the set of lift area information; (iv) determine a destination position for the mobile column based on the current position of the mobile column , wherein the destination position is near the wheel and substantially centered on the axis of rotation of the wheel ; and (v) automatically operate the set of wheel modules to reposition the mobile column based on the destination position.
A spectroscopic analysis apparatus comprising: a probe configured to be disposed in a flow passage of a measurement target fluid; a reflector disposed in a distal end of the probe ; an analyzer mounted at an end portion of the probe on a side opposite to the distal end of the probe ; a laser light source , included in the analyzer , configured to emit laser light, the wavelength of which can be scanned, towards the reflector ; a light receiver , included in the analyzer , configured to receive the laser light reflected by the reflector ; a controller , included in the analyzer , configured to analyze the measurement target fluid using the laser light received by the light receiver , and to control the laser light source ; and an acceleration sensor , mounted on the probe and configured to detect an acceleration of the probe due to a vibration, and to output information on the acquired acceleration to the controller , wherein the controller is configured to calculate the light-receivable time of the laser, the light-receivable time being a time in which the laser light reflected by the reflector can be received by the light receiver , the calculation being made by using the acceleration detected by the acceleration sensor , and wherein the controller is further configured to control a laser light output of the laser light source such that a scanning time is equal to or shorter than half the light-receivable time, the scanning time being a time to scan the laser light emitted from the laser light source in a certain wavelength range. a probe configured to be disposed in a flow passage of a measurement target fluid; a reflector disposed in a distal end of the probe ; an analyzer mounted at an end portion of the probe on a side opposite to the distal end of the probe ; a laser light source , included in the analyzer , configured to emit laser light, the wavelength of which can be scanned, towards the reflector ; a light receiver , included in the analyzer , configured to receive the laser light reflected by the reflector ; a controller , included in the analyzer , configured to analyze the measurement target fluid using the laser light received by the light receiver , and to control the laser light source ; and an acceleration sensor , mounted on the probe and configured to detect an acceleration of the probe due to a vibration, and to output information on the acquired acceleration to the controller , wherein the controller is configured to calculate the light-receivable time of the laser, the light-receivable time being a time in which the laser light reflected by the reflector can be received by the light receiver , the calculation being made by using the acceleration detected by the acceleration sensor , and wherein the controller is further configured to control a laser light output of the laser light source such that a scanning time is equal to or shorter than half the light-receivable time, the scanning time being a time to scan the laser light emitted from the laser light source in a certain wavelength range.
Sensor device, particularly for maritime applications, with a housing that comprises a pressure port , which leads to a pressure sensor which transmits measurement data by means of a transmission device , and which comprises at least one closable passage opening to connect the surrounding environment to at least parts of the inside of the housing in which the pressure sensor is arranged, the pressure sensor being surrounded by an incompressible medium, which is separated from the surrounding environment by means of an elastically flexible and media-tight separating device , characterised in that the separating device is designed in the form of a rolling membrane , from which a bowl-like inner part , turned at a deflection point , engages in a cup-like extension of a receiving part at least in one initial state of the membrane .
A resin composition for sliding member, comprising 40 to 80 mass% of a polyphenylene sulfide resin and, as additives, 15 to 40 mass% of a polytetrafluoroethylene resin, 2 to 20 mass% of an ultra-high molecular weight polyethylene resin, 0.1 to 5 mass% of a modified polyolefin resin, and 0.5 to 5 mass% of an amorphous polymer.
A bispecific antibody comprising a binding domain that binds to Pseudomonas Psl and a binding domain that binds to Pseudomonas PcrV, wherein the bispecific antibody comprises an anti-PcrV heavy chain-anti-Psl scFv fusion protein, wherein the Psl scFv is within the hinge region of the anti-PcrV heavy chain, said fusion protein having the amino acid sequence set out in SEQ ID NO: 264 and an anti-PcrV light chain having the amino acid sequence set out in SEQ ID NO: 263.
Method for determining the respective temperature of a plurality of battery cells of a vehicle battery , comprising the steps of: - determining (S1) measured values which comprise a first voltage of at least one first battery cell and a second voltage of at least one second battery cell as well as at least one respective current flowing through the battery cells , - determining (S2) a first measured resistance of the first battery cell and a second measured resistance of the second battery cell from the measured values, - determining (S4) a reference resistance, - determining (S5) a first resistance ratio from the first measured resistance and the reference resistance and a second resistance ratio from the second measured resistance and the reference resistor, - determining (S6) a measured temperature of the first battery cell , and - determining (S7) a computing temperature of the second battery cell on the basis of the measured temperature as well as the first resistance ratio and the second resistance ratio according to a predetermined rule, wherein the predetermined rule contains a distribution function and/or value table which, depending on the measured temperature as well as the first resistance ratio, assigns exactly one respective value for the temperature to a number of values for the second resistance ratio. - determining (S1) measured values which comprise a first voltage of at least one first battery cell and a second voltage of at least one second battery cell as well as at least one respective current flowing through the battery cells , - determining (S2) a first measured resistance of the first battery cell and a second measured resistance of the second battery cell from the measured values, - determining (S4) a reference resistance, - determining (S5) a first resistance ratio from the first measured resistance and the reference resistance and a second resistance ratio from the second measured resistance and the reference resistor, - determining (S6) a measured temperature of the first battery cell , and - determining (S7) a computing temperature of the second battery cell on the basis of the measured temperature as well as the first resistance ratio and the second resistance ratio according to a predetermined rule, wherein the predetermined rule contains a distribution function and/or value table which, depending on the measured temperature as well as the first resistance ratio, assigns exactly one respective value for the temperature to a number of values for the second resistance ratio.
A system for facilitating treatment via a vascular wall defining a vascular lumen containing an occlusion therein, the system comprising: an intramural orienting device including an elongate outer shaft with a distal end connected to a proximal end of an orienting element , and an elongate inner shaft extending through the outer shaft and the orienting element ; and a re-entry device having a distal tip configured to penetrate the vascular wall and enter into the vascular lumen , the re-entry device sized and configured to be inserted into a lumen of the inner shaft; wherein a distal end of the inner shaft is connected to a distal end of the orienting element ; wherein the inner shaft includes a lumen extending therethrough to a side port adjacent the orienting element ; wherein the orienting element comprises a tube with cuts made to define two separate wings configured for movement between a collapsed delivery configuration and an expanded deployed configuration. an intramural orienting device including an elongate outer shaft with a distal end connected to a proximal end of an orienting element , and an elongate inner shaft extending through the outer shaft and the orienting element ; and a re-entry device having a distal tip configured to penetrate the vascular wall and enter into the vascular lumen , the re-entry device sized and configured to be inserted into a lumen of the inner shaft; wherein a distal end of the inner shaft is connected to a distal end of the orienting element ; wherein the inner shaft includes a lumen extending therethrough to a side port adjacent the orienting element ; wherein the orienting element comprises a tube with cuts made to define two separate wings configured for movement between a collapsed delivery configuration and an expanded deployed configuration.