mhurhangee/patent-ind-claim-en huggingface dataset:
Computer-implemented method for determining a local deviation of a geometry of an object from a target geometry of the object from a digital representation of the object, wherein the object representation comprises a plurality of items of image information of the object, wherein an item of image information indicates a value of a measured variable for the object at a defined position of the object, wherein the method comprises the following steps: • ascertaining the object representation, • ascertaining a distance field from the items of image information of the object representation, wherein the distance field comprises a plurality of distance values, wherein a distance value for a specific point of the distance field specifies the shortest spacing of the point to a closest material boundary surface of the geometry of the object, • ascertaining the target geometry of the object, wherein the target geometry of the object is predetermined by a user input and/or the target geometry of the object is ascertained from a CAD file, • registering the target geometry of the object on the material boundary surfaces of the geometry of the object specified by the distance values, and • ascertaining the local deviation of the geometry of the object from the target geometry of the object at a test point on a material boundary surface predetermined by the target geometry by reading out the distance value of the distance field at the position of the test point. • ascertaining the object representation, • ascertaining a distance field from the items of image information of the object representation, wherein the distance field comprises a plurality of distance values, wherein a distance value for a specific point of the distance field specifies the shortest spacing of the point to a closest material boundary surface of the geometry of the object, • ascertaining the target geometry of the object, wherein the target geometry of the object is predetermined by a user input and/or the target geometry of the object is ascertained from a CAD file, • registering the target geometry of the object on the material boundary surfaces of the geometry of the object specified by the distance values, and • ascertaining the local deviation of the geometry of the object from the target geometry of the object at a test point on a material boundary surface predetermined by the target geometry by reading out the distance value of the distance field at the position of the test point.
The use of an amorphous thermoplastic polyester for the production of hollow articles, said amorphous thermoplastic polyester comprising: • at least one 1,4:3,6-dianhydrohexitol unit (A); • at least one alicyclic diol unit (B) other than the 1,4:3,6-dianhydrohexitol units (A); • at least one terephthalic acid unit (C); the (A)/[(A)+(B)] molar ratio being at least 0.32 and at most 0.90; said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 1%, and the reduced viscosity in solution (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of said polyester being greater than 50 ml/g said polyester having a glass transition temperature ranging from 115 to 200°C, measured as indicated in the description. • at least one 1,4:3,6-dianhydrohexitol unit (A); • at least one alicyclic diol unit (B) other than the 1,4:3,6-dianhydrohexitol units (A); • at least one terephthalic acid unit (C); the (A)/[(A)+(B)] molar ratio being at least 0.32 and at most 0.90; said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 1%, and the reduced viscosity in solution (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of said polyester being greater than 50 ml/g said polyester having a glass transition temperature ranging from 115 to 200°C, measured as indicated in the description. the (A)/[(A)+(B)] molar ratio being at least 0.32 and at most 0.90; said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 1%, and the reduced viscosity in solution (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of said polyester being greater than 50 ml/g said polyester having a glass transition temperature ranging from 115 to 200°C, measured as indicated in the description.
A method of wireless communication of a user equipment, UE, comprising: transmitting a random-access channel, RACH, preamble to a base station in one or more attempts; receiving , through a random access response message from the base station, information comprising a number of attempts the base station used to decode the RACH preamble; adjusting a transmission power for a connection request message according to the number of attempts the base station used to decode the RACH preamble; and transmitting the connection request message using the adjusted transmission power. transmitting a random-access channel, RACH, preamble to a base station in one or more attempts; receiving , through a random access response message from the base station, information comprising a number of attempts the base station used to decode the RACH preamble; adjusting a transmission power for a connection request message according to the number of attempts the base station used to decode the RACH preamble; and transmitting the connection request message using the adjusted transmission power.
A system comprising: a laser source ; an acousto-optic modulator, AOM, coupled to said laser source and comprising an acousto-optic medium , and a plurality of transducer electrodes (234a-234e) carried by said acousto-optic medium ; wherein the system is characterized by an interface board comprising a dielectric layer , a plurality of vertically extending signal vias (252a-252c) within said dielectric layer, each vertically extending signal via having a lower end in contact with a respective transducer electrode , and a plurality of laterally extending signal traces (254a-254c) carried by said dielectric layer , each laterally extending signal trace in contact with an upper end of a respective vertically extending signal via (252a-252c). a laser source ; an acousto-optic modulator, AOM, coupled to said laser source and comprising an acousto-optic medium , and a plurality of transducer electrodes (234a-234e) carried by said acousto-optic medium ; wherein the system is characterized by an interface board comprising a dielectric layer , a plurality of vertically extending signal vias (252a-252c) within said dielectric layer, each vertically extending signal via having a lower end in contact with a respective transducer electrode , and a plurality of laterally extending signal traces (254a-254c) carried by said dielectric layer , each laterally extending signal trace in contact with an upper end of a respective vertically extending signal via (252a-252c). a dielectric layer , a plurality of vertically extending signal vias (252a-252c) within said dielectric layer, each vertically extending signal via having a lower end in contact with a respective transducer electrode , and a plurality of laterally extending signal traces (254a-254c) carried by said dielectric layer , each laterally extending signal trace in contact with an upper end of a respective vertically extending signal via (252a-252c).
A method comprising: associating , by a first wireless communications device, with a relay wireless communications device during a first awake period common to the first wireless communications device and the relay wireless communications device; monitoring, by the first wireless communications device, for a stay alive signal from the relay wireless communications device during a second awake period that occurs at a first periodic rate regardless of whether there is traffic to receive; and sending, by the first wireless communications device, a link confirmation signal to the relay wireless communications device during a third awake period that occurs at a second periodic rate regardless of whether there is traffic to transmit, wherein the first wireless communications device is asleep at a time that overlaps a sleep time of the relay wireless communications device. associating , by a first wireless communications device, with a relay wireless communications device during a first awake period common to the first wireless communications device and the relay wireless communications device; monitoring, by the first wireless communications device, for a stay alive signal from the relay wireless communications device during a second awake period that occurs at a first periodic rate regardless of whether there is traffic to receive; and sending, by the first wireless communications device, a link confirmation signal to the relay wireless communications device during a third awake period that occurs at a second periodic rate regardless of whether there is traffic to transmit, wherein the first wireless communications device is asleep at a time that overlaps a sleep time of the relay wireless communications device.
Method for determining an aggregate state of an aqueous operating liquid in an operating liquid container for a motor vehicle, wherein the operating liquid container has at least one capacitor which is fastened to a container wall of the operating liquid container and has a first electrode and a second electrode opposite said first electrode, wherein the method comprises the following method steps: - Applying (A) at least a first alternating voltage to the capacitor , wherein a first frequency of the first alternating voltage corresponds to a lower frequency limit (fmin); - determining and storing (B) a first impedance of the capacitor for the first frequency; - determining (C) a first phase angle (φ1) from the first impedance; - determining (D) that the operating liquid located in the operating liquid container is in a solid aggregate state when the first phase angle (φ1) is greater than a first critical angle (δ1); - Applying (E) a second alternating voltage to the capacitor , wherein a second frequency of the second alternating voltage corresponds to an upper frequency limit (fmax); - determining and storing (F) a second impedance of the capacitor for the second frequency; - determining (G) a second phase angle (φ2) from the second impedance; and - determining (H) that the operating liquid located in the operating liquid container is partially in a solid and partially in a liquid aggregate state when the first phase angle (φ1) is smaller than the first critical angle (δ1) and a difference between the second phase angle (φ2) and the first phase angle (φ1) is greater than a second critical angle (δ2). - Applying (A) at least a first alternating voltage to the capacitor , wherein a first frequency of the first alternating voltage corresponds to a lower frequency limit (fmin); - determining and storing (B) a first impedance of the capacitor for the first frequency; - determining (C) a first phase angle (φ1) from the first impedance; - determining (D) that the operating liquid located in the operating liquid container is in a solid aggregate state when the first phase angle (φ1) is greater than a first critical angle (δ1); - Applying (E) a second alternating voltage to the capacitor , wherein a second frequency of the second alternating voltage corresponds to an upper frequency limit (fmax); - determining and storing (F) a second impedance of the capacitor for the second frequency; - determining (G) a second phase angle (φ2) from the second impedance; and - determining (H) that the operating liquid located in the operating liquid container is partially in a solid and partially in a liquid aggregate state when the first phase angle (φ1) is smaller than the first critical angle (δ1) and a difference between the second phase angle (φ2) and the first phase angle (φ1) is greater than a second critical angle (δ2).
Method for arming/disarming a slide of an aeroplane door linked with a cabin floor of the aeroplane, wherein - in arming mode, called ARM - the door is lowered into closed position to engage first connection parts of two releasable mechanisms with elastic centring on second connection parts of these mechanisms , respectively secured to the door and to the cabin floor ; the first parts are locked onto the second parts of the mechanisms by a misalignment of respective imprints following the simultaneous rotational driving of the first connection parts by a translation according to a blocking kinematic triggered by a single control via a coupling bar coupled by attachment means by locking/unlocking grasps of the first connection parts and actuated by an energy source , other imprints of the first parts being then aligned in a releasable manner; in case of emergency exit, the slide only coupled to each mechanism is unwound and inflated; and - in disarming mode, called DISARM - said mechanisms are unlocked by a mechanical driving (14, 5; 25a, 25b) of release translational and rotational kinematic which unlocks the first parts from the second parts by an alignment of respective imprints and locks the first parts to the door by a misalignment of the other imprints , then to lift the door to uncouple the parts (21a, 21b; 22a, 22b) of the mechanisms before proceeding with the opening thereof.
Use of a polymer (P2) in a luminescent component whereby • said polymer (P2) is selected from the group of polymers with WVTR < 1 (g*mm)/(m2*day). • said luminescent component comprises luminescent crystals of the perovskite crystal structure embedded in a polymer (P1) with Tg < 95°C; whereby Tg is determined according to DIN EN ISO 11357-2:2014-07 during the second heating cycle and applying a heating rate of 20K/min, starting at -90°C up to 250°C; and whereby WVTR is determined by ISO 15106-3:2003 at a temperature / relative humidity of 40°C / 90%r.h. • said polymer (P2) is selected from the group of polymers with WVTR < 1 (g*mm)/(m2*day). • said luminescent component comprises luminescent crystals of the perovskite crystal structure embedded in a polymer (P1) with Tg < 95°C; whereby Tg is determined according to DIN EN ISO 11357-2:2014-07 during the second heating cycle and applying a heating rate of 20K/min, starting at -90°C up to 250°C; and whereby WVTR is determined by ISO 15106-3:2003 at a temperature / relative humidity of 40°C / 90%r.h.
A connecting element with a housing having a first receiving space with a first joining element and a first shiftable valve element arranged therein, and having a second receiving space , wherein the first and the second receiving space are fluidically connected to each other, wherein the first valve element is of elastically deformable design and is shiftable, wherein the first valve element is shiftable between two positions, wherein, in the first position, a fluidic connection between the first receiving space and the first joining element is interrupted by the first valve element and, in the second position, a fluidic connection between the first receiving space and the first joining element is opened by the first valve element , wherein the first valve element is formed with a duct which is closed in the first position of the first valve element and is opened in the second position of the first valve element , wherein a hollow pin is arranged in the first receiving space and engages in the duct , characterized in that the first valve element is designed as a spring element with a cylindrical body and spring arms protruding therefrom and is made of an elastic material.
Tyre provided with a tread, said tread comprising a rubber composition based on at least one diene elastomer, a zinc diacrylate derivative in the form of a zinc salt of formula (I) in which R1, R2 and R3 independently represent a hydrogen atom or a C1-C7 hydrocarbon group selected from linear, branched or cyclic alkyl groups, aralkyl groups, alkylaryl groups and aryl groups, which are optionally interrupted by one or more heteroatoms, it being possible for R2 and R3 to form together a non-aromatic ring, said composition additionally comprising a peroxide, the contents of zinc diacrylate derivative and of peroxide being such that the ratio of the peroxide content to the zinc diacrylate derivative content is less than or equal to 0.09, said composition comprising no reinforcing filler or comprising less than 50 phr thereof, the ratio of the filler content to the zinc diacrylate derivative content being less than or equal to 2. in which R1, R2 and R3 independently represent a hydrogen atom or a C1-C7 hydrocarbon group selected from linear, branched or cyclic alkyl groups, aralkyl groups, alkylaryl groups and aryl groups, which are optionally interrupted by one or more heteroatoms, it being possible for R2 and R3 to form together a non-aromatic ring, said composition additionally comprising a peroxide, the contents of zinc diacrylate derivative and of peroxide being such that the ratio of the peroxide content to the zinc diacrylate derivative content is less than or equal to 0.09, said composition comprising no reinforcing filler or comprising less than 50 phr thereof, the ratio of the filler content to the zinc diacrylate derivative content being less than or equal to 2.
A method of fragmenting DNA, the method comprising, incubating a gel 5 plug which comprises the DNA with a combination of a nuclease and an oligonucleotide not covalently bound to the nuclease, said nuclease and said oligonucleotide combination imparting a binding affinity and selectivity to pre-defined sites in the DNA so as to yield a DNA fragment-of-interest, to thereby fragment the DNA. 10
A secondary battery , comprising: a casing ; an electrode assembly , disposed in the casing and comprising a main body and a tab extending from the main body ; a cap assembly , comprising a cap plate and an electrode terminal disposed on the cap plate , the cap plate connected with the casing ; and a current collecting member, comprising an adapting piece and a connecting component , the connecting component and the adapting piece provided separately and connected with each other, the adapting piece connected with the electrode terminal , and the adapting piece comprising a guiding section which is located on one side of the main body along a length direction (Y) of the secondary battery and extends along a direction (X) perpendicular to the length direction (Y), wherein the connecting component comprises a current collecting section and a tab connecting section , the current collecting section is connected with the guiding section , the tab connecting section is connected with the tab , characterized in that , the current collecting section is disposed between the guiding section and the main body , a portion of the connecting component connected with the tab is bent with respect to the length direction (Y), the tab connecting section is bent on a side of the guiding section away from the main body , and the tab is connected with a surface of the tab connecting section away from the guiding section , and the connecting component is configured to have a rigidity less than that of the guiding section . a casing ; an electrode assembly , disposed in the casing and comprising a main body and a tab extending from the main body ; a cap assembly , comprising a cap plate and an electrode terminal disposed on the cap plate , the cap plate connected with the casing ; and a current collecting member, comprising an adapting piece and a connecting component , the connecting component and the adapting piece provided separately and connected with each other, the adapting piece connected with the electrode terminal , and the adapting piece comprising a guiding section which is located on one side of the main body along a length direction (Y) of the secondary battery and extends along a direction (X) perpendicular to the length direction (Y), wherein the connecting component comprises a current collecting section and a tab connecting section , the current collecting section is connected with the guiding section , the tab connecting section is connected with the tab , characterized in that , the current collecting section is disposed between the guiding section and the main body , a portion of the connecting component connected with the tab is bent with respect to the length direction (Y), the tab connecting section is bent on a side of the guiding section away from the main body , and the tab is connected with a surface of the tab connecting section away from the guiding section , and the connecting component is configured to have a rigidity less than that of the guiding section .
An apparatus for generating nitric oxide (NO) associated with a respiratory system, comprising: two or more electrodes associated with a production of a nitric oxide gas; a scavenger arranged downstream of the electrodes to filter at least nitrogen dioxide, NO 2 ; a filter arranged on an inspiratory line configured to deliver the nitric oxide gas to a patient, the filter configured to filter particles from the nitric oxide gas to prevent inhalation of the particles through the inspiratory line; and at least one controller in communication with the two or more electrodes and one or more sensors including a NO2 sensor and configured to regulate the amount of nitric oxide in the nitric oxide gas produced by the two or more electrodes by supplying an electrical signal to the electrodes that controls timing and sparking characteristics of the electrodes using information from one or more sensors, the controller being configured to monitor a condition of the scavenger by determining if the concentration of nitrogen dioxide as measured by the NO2 sensor exceeds a predetermined value such that the controller is configured to one or more of instruct a user to replace the scavenger and cease supplying the electric signal to the electrodes to cease nitric oxide production. two or more electrodes associated with a production of a nitric oxide gas; a scavenger arranged downstream of the electrodes to filter at least nitrogen dioxide, NO 2 ; a filter arranged on an inspiratory line configured to deliver the nitric oxide gas to a patient, the filter configured to filter particles from the nitric oxide gas to prevent inhalation of the particles through the inspiratory line; and at least one controller in communication with the two or more electrodes and one or more sensors including a NO2 sensor and configured to regulate the amount of nitric oxide in the nitric oxide gas produced by the two or more electrodes by supplying an electrical signal to the electrodes that controls timing and sparking characteristics of the electrodes using information from one or more sensors, the controller being configured to monitor a condition of the scavenger by determining if the concentration of nitrogen dioxide as measured by the NO2 sensor exceeds a predetermined value such that the controller is configured to one or more of instruct a user to replace the scavenger and cease supplying the electric signal to the electrodes to cease nitric oxide production.