mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging lens, comprising: a first lens (L1) having a negative refracting power and having a meniscus shape in which a convex surface is directed toward an object side; a second lens (L2) having a negative refracting power and having a meniscus shape in which a convex surface is directed toward the object side; a third lens (L3)having a positive refracting power and having a bi-convex shape; an aperture stop (S); a fourth lens (L4) having a positive refracting power and having a bi-convex shape; a fifth lens (L5) having a negative refracting power and having a bi-concave shape; and a sixth lens (L6) having a positive refracting power and having a bi-convex shape, the first lens (L1), the second lens (L2), the third lens (L3), the aperture stop (S), the fourth lens (L4), the fifth lens (L5), and the sixth lens (L6) being arranged in order from the object side to an image surface side, the imaging lens being constituted by six groups and six independent lenses (L1, L2, L3, L4, L5, L6) as a whole, the imaging lens having a total angle of view of 150 degrees or more, characterized in that a following conditional expression being fulfilled: 40 < R 5 / f where R5: a radius of curvature on an optical axis of the surface on the object side of the third lens (L3) f: a focal length of the entire system a first lens (L1) having a negative refracting power and having a meniscus shape in which a convex surface is directed toward an object side; a second lens (L2) having a negative refracting power and having a meniscus shape in which a convex surface is directed toward the object side; a third lens (L3)having a positive refracting power and having a bi-convex shape; an aperture stop (S); a fourth lens (L4) having a positive refracting power and having a bi-convex shape; a fifth lens (L5) having a negative refracting power and having a bi-concave shape; and a sixth lens (L6) having a positive refracting power and having a bi-convex shape, the first lens (L1), the second lens (L2), the third lens (L3), the aperture stop (S), the fourth lens (L4), the fifth lens (L5), and the sixth lens (L6) being arranged in order from the object side to an image surface side, the imaging lens being constituted by six groups and six independent lenses (L1, L2, L3, L4, L5, L6) as a whole, the imaging lens having a total angle of view of 150 degrees or more, characterized in that a following conditional expression being fulfilled: 40 < R 5 / f where R5: a radius of curvature on an optical axis of the surface on the object side of the third lens (L3) f: a focal length of the entire system R5: a radius of curvature on an optical axis of the surface on the object side of the third lens (L3) f: a focal length of the entire system
Bi- or multimodal polyethylene being a terpolymer of ethylene and two different comonomers selected from alpha olefins having from 4 to 10 carbon atoms and being produced with a metallocene catalyst, wherein the bi- or multimodal polyethylene terpolymer has (a) an MFR 2 of 2.0-5.0 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load), (b) an MWD (Mw/Mn) of 5 or less (c) a density of 915 to 930 kg/m 3 (according to ISO 1183) (d) an unsaturation level Rv of below 0.40 and being defined as Rv = vinyl vinylidene + vinyl + cis + trans + tris wherein [vinyl] is the concentration of vinyl groups in the isolated polymer in vinyl/1000 carbon atoms; [vinylidene], [cis], [trans] and [tris] are the concentration of vinylidene, cis and trans vinylene groups and of tri-substituted vinylene groups in the isolated polymer in amount per 1000 carbon atoms, respectively, as detected by the method described in the experimental part, and wherein the bi- or multimodal polyethylene terpolymer comprises at least (i) an ethylene polymer component (A) having an MFR 2 of at least 50 g/10 min up to 100 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load) and (ii) an ethylene polymer component (B) having an MFR 2 of 0.5 to 10.0 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load). (a) an MFR 2 of 2.0-5.0 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load), (b) an MWD (Mw/Mn) of 5 or less (c) a density of 915 to 930 kg/m 3 (according to ISO 1183) (d) an unsaturation level Rv of below 0.40 and being defined as (i) an ethylene polymer component (A) having an MFR 2 of at least 50 g/10 min up to 100 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load) and (ii) an ethylene polymer component (B) having an MFR 2 of 0.5 to 10.0 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load).
A powered air purifying respirator (PAPR) with an active heating element , the PAPR comprising: a face piece sized to fit over a user's nose and mouth; a powered air component designed to be carried by a user of the PAPR, the powered air component including a fan and a filter , wherein the fan draws air from a user's environment through the filter; an electronically controlled active heating element configured to heat the air after it passes through the filter; a sensor that measures fan speed, the sensor being selected from an optical sensor, a capacitive sensor or an inductive sensor; and a control system , wherein the control system is configured to: vary the power provided to the active heating element, receive input from the sensor regarding the measurement of the fan speed, detect insufficient air flow based on the measurement of fan speed, thereby determining potential overheating of the active heating element, and in response to said detection, reduce or remove power supplied to the active heating element to prevent overheating of the active heating element; and a hose connecting the face piece to the powered air component wherein the face piece receives air from the powered air component through the hose. a face piece sized to fit over a user's nose and mouth; a powered air component designed to be carried by a user of the PAPR, the powered air component including a fan and a filter , wherein the fan draws air from a user's environment through the filter; an electronically controlled active heating element configured to heat the air after it passes through the filter; a sensor that measures fan speed, the sensor being selected from an optical sensor, a capacitive sensor or an inductive sensor; and a control system , wherein the control system is configured to: vary the power provided to the active heating element, receive input from the sensor regarding the measurement of the fan speed, detect insufficient air flow based on the measurement of fan speed, thereby determining potential overheating of the active heating element, and in response to said detection, reduce or remove power supplied to the active heating element to prevent overheating of the active heating element; and vary the power provided to the active heating element, receive input from the sensor regarding the measurement of the fan speed, detect insufficient air flow based on the measurement of fan speed, thereby determining potential overheating of the active heating element, and in response to said detection, reduce or remove power supplied to the active heating element to prevent overheating of the active heating element; and a hose connecting the face piece to the powered air component wherein the face piece receives air from the powered air component through the hose.
Therapy glove for fixation of at least one finger, - with a glove comprising a central area enclosing a back of the hand and/or a palm, - with at least one finger stall extending from the central region , in which the finger to be fixed can be accommodated, - with at least one fixing rail , which has a main rail section and at least one finger rail section arranged thereon, - with a fastening means in the central region , by means of which the fixing rail is detachably fastened, characterized in that - the therapy glove has at least one fixing pocket arranged on the finger stall (A), into which the finger rail section is insertable, and wherein the fixing rail , which is inserted into the finger pocket and held by the fastening means , fixes the finger received in the finger stall in a therapy position relative to the back of the hand, - wherein a releasable fastener is provided on each finger stall having a fixing pocket , by means of which a contact position of the finger in the finger stall with respect to the finger rail section is adjustable. - with a glove comprising a central area enclosing a back of the hand and/or a palm, - with at least one finger stall extending from the central region , in which the finger to be fixed can be accommodated, - with at least one fixing rail , which has a main rail section and at least one finger rail section arranged thereon, - with a fastening means in the central region , by means of which the fixing rail is detachably fastened, characterized in that - the therapy glove has at least one fixing pocket arranged on the finger stall (A), into which the finger rail section is insertable, and wherein the fixing rail , which is inserted into the finger pocket and held by the fastening means , fixes the finger received in the finger stall in a therapy position relative to the back of the hand, - wherein a releasable fastener is provided on each finger stall having a fixing pocket , by means of which a contact position of the finger in the finger stall with respect to the finger rail section is adjustable.
An arrangement comprising a dosing device and an adapter for coupling a movable dosing system , which can be positioned in a dishwasher, to a water-carrying line of a dishwasher, the adapter comprising • a water inlet and a water outlet , which can each be coupled to the water-carrying line of the dishwasher such that water can flow through the adapter , and • a means for fixing the dosing device on or in the adapter , the dosing device comprising • a control unit , • a sensor unit , • and at least one actuator which is connected to an energy source and to the control unit such that a control signal from the control unit causes the actuator to move, causing or disabling a product release as a result, wherein the adapter can be arranged on one of the inner walls of a washing chamber of the dishwasher, in particular on the inner face of a dishwasher door, and wherein the dosing device and the means for fixing the dosing device on or in the adapter are configured in such a way that, in the coupled state, a liquid-tight connection is formed between the adapter and the dosing device , which connection prevents the entry of water from outside the adapter into the adapter and prevents water which flows through the adaptor from exiting the adaptor into the surroundings of the adapter . • a water inlet and a water outlet , which can each be coupled to the water-carrying line of the dishwasher such that water can flow through the adapter , and • a means for fixing the dosing device on or in the adapter , the dosing device comprising • a control unit , • a sensor unit , • and at least one actuator which is connected to an energy source and to the control unit such that a control signal from the control unit causes the actuator to move, causing or disabling a product release as a result, wherein the adapter can be arranged on one of the inner walls of a washing
A reverse thruster cascade , comprising: a strip assembly comprising a strong back member comprising a plurality of first vane members which extend from a first side of the strong back member; a second strip assembly comprising a second strong back member comprising a plurality of third vane members which extend from a second side of the second strong back member ; wherein: the strip assembly is securable at opposing end portions of the strip assembly to a nacelle ; and the second strip assembly is securable at opposing end portions of the second strip assembly to the nacelle such that with each of the strip assembly and the second strip assembly secured to the nacelle a distal end of one of the plurality of the first vane members adjoins a distal end of one of the plurality of the third vane members. a strip assembly comprising a strong back member comprising a plurality of first vane members which extend from a first side of the strong back member; a second strip assembly comprising a second strong back member comprising a plurality of third vane members which extend from a second side of the second strong back member ; wherein: the strip assembly is securable at opposing end portions of the strip assembly to a nacelle ; and the second strip assembly is securable at opposing end portions of the second strip assembly to the nacelle such that with each of the strip assembly and the second strip assembly secured to the nacelle a distal end of one of the plurality of the first vane members adjoins a distal end of one of the plurality of the third vane members. the strip assembly is securable at opposing end portions of the strip assembly to a nacelle ; and the second strip assembly is securable at opposing end portions of the second strip assembly to the nacelle such that with each of the strip assembly and the second strip assembly secured to the nacelle a distal end of one of the plurality of the first vane members adjoins a distal end of one of the plurality of the third vane members.
Method for communication between a fuelling device and a vehicle , comprising the steps of: - coupling the fuelling device and a tank of the vehicle by means of a fuel nozzle , - providing a pressurized fuel at the fuel nozzle , - varying the pressure at the fuel nozzle by superimposing a pressure sequence onto a specified base pressure in order to modulate onto it a first signal to be transmitted, and - detecting the pressure present at the fuel nozzle by means of the vehicle and extracting the first signal to be transmitted from the detected pressure. - coupling the fuelling device and a tank of the vehicle by means of a fuel nozzle , - providing a pressurized fuel at the fuel nozzle , - varying the pressure at the fuel nozzle by superimposing a pressure sequence onto a specified base pressure in order to modulate onto it a first signal to be transmitted, and - detecting the pressure present at the fuel nozzle by means of the vehicle and extracting the first signal to be transmitted from the detected pressure.
An immunoassay method for free AIM in a biological sample containing complex AIM and free AIM, the method comprising: bringing the biological sample into contact with an antibody specifically reacting with free AIM in the presence of an anti-IgM antibody, wherein "free AIM" means AIM existing in a free state without being bound to other substances such as lipopolysaccharide or IgM, wherein "complex AIM" means AIM bound to other substances such as lipopolysaccharide or IgM and existing in a state of a complex, and wherein the anti-IgM antibody further improves the specificity for free AIM of an antibody specifically reacting with free AIM. wherein "free AIM" means AIM existing in a free state without being bound to other substances such as lipopolysaccharide or IgM, wherein "complex AIM" means AIM bound to other substances such as lipopolysaccharide or IgM and existing in a state of a complex, and wherein the anti-IgM antibody further improves the specificity for free AIM of an antibody specifically reacting with free AIM.
An energizing method of a transformer, the transformer comprising at least two groups of coils forming primary transformer windings , all of coils that form the at least two groups of coils are connected or connectible in parallel to each other, and at least one secondary transformer winding , wherein the method comprises in the stated order: a. Supplying a supply voltage to a first number of the groups of coils for a predetermined amount of time, the first number being less than the entirety of groups of coils, thereby passing a common magnetic flux through the groups of coils; and b. Supplying the supply voltage to the entirety of the groups of coils. a. Supplying a supply voltage to a first number of the groups of coils for a predetermined amount of time, the first number being less than the entirety of groups of coils, thereby passing a common magnetic flux through the groups of coils; and b. Supplying the supply voltage to the entirety of the groups of coils.
An antiperspirant composition comprising: (i) lecithin; (ii) a non-ionic surfactant having a HLB value lower than 4.7 or higher than 8.6; (iii) at least one organic compound selected from fatty acid having 10-22 carbons, and fatty alcohol which is selected from oleyl alcohol, isostearyl alcohol, lanolin alcohol, heptanol, octanol, decanol, and nonanol; and (iv) a cosmetically acceptable carrier; wherein said composition comprises less than 30 wt% of water; wherein said composition comprises at least 3 wt% of said lecithin by weight of the composition. (i) lecithin; (ii) a non-ionic surfactant having a HLB value lower than 4.7 or higher than 8.6; (iii) at least one organic compound selected from fatty acid having 10-22 carbons, and fatty alcohol which is selected from oleyl alcohol, isostearyl alcohol, lanolin alcohol, heptanol, octanol, decanol, and nonanol; and (iv) a cosmetically acceptable carrier;
A sending method, comprising: acquiring one or more time-domain signals corresponding to one or more frequency-domain signals except primary synchronization frequency-domain signals (S102), said acquiring comprises: generating the one or more frequency-domain signals except the primary synchronization frequency-domain signals, and acquiring the one or more time-domain signals by converting the generated one or more frequency-domain signals; determining one primary synchronization time-domain signal in at least two pre-stored primary synchronization time-domain signals and performing weighted processing on the determined primary synchronization time-domain signal (S104), said determining comprises: selecting one primary synchronization time-domain signal from the at least two pre-stored primary synchronization time-domain signals according to a cell Identifier, ID, and performing power and phase weighted processing on the selected primary synchronization time-domain signal; and sending a signal which is obtained by adding the weighted primary synchronization time-domain signal and the one or more time-domain signals (S106). acquiring one or more time-domain signals corresponding to one or more frequency-domain signals except primary synchronization frequency-domain signals (S102), said acquiring comprises: generating the one or more frequency-domain signals except the primary synchronization frequency-domain signals, and acquiring the one or more time-domain signals by converting the generated one or more frequency-domain signals; determining one primary synchronization time-domain signal in at least two pre-stored primary synchronization time-domain signals and performing weighted processing on the determined primary synchronization time-domain signal (S104), said determining comprises: selecting one primary synchronization time-domain signal from the at least two pre-stored primary synchronization time-domain signals according to a cell Identifier, ID, and performing power and phase weighted processing on the selected primary synchronization time-domain signal; and sending a signal which is obtained by adding the weighted primary synchronization time-domain signal and the one or more time-domain signals (S106).
A method for compensating light reflections from a cover of a time-of-flight camera in an image of a scene that is sensed by the time-of-flight camera, the method comprising: receiving the image of the scene from the time-of-flight camera; modifying the image of the scene using a reference raw image to obtain a compensated image of the scene, wherein pixels of the reference raw image indicate reference values exclusively related to light reflections from the cover of the time-of-flight camera; outputting the compensated image; and controlling the time-of-flight camera to use a code modulated signal for illumination such that a measurement range of the time-of-flight camera ends immediately after the cover, wherein a raw image that is captured by the time-of-flight camera based on the code modulated signal is used as the reference raw image. receiving the image of the scene from the time-of-flight camera; modifying the image of the scene using a reference raw image to obtain a compensated image of the scene, wherein pixels of the reference raw image indicate reference values exclusively related to light reflections from the cover of the time-of-flight camera; outputting the compensated image; and controlling the time-of-flight camera to use a code modulated signal for illumination such that a measurement range of the time-of-flight camera ends immediately after the cover, wherein a raw image that is captured by the time-of-flight camera based on the code modulated signal is used as the reference raw image.
A sound insulating structural body comprising at least a sound insulating sheet member and a support body , the sound insulating sheet member comprising a plurality of resonant portions , wherein each of the resonant portions including a base part and a weight part , and the weight part being supported by the base part and having a larger mass than the base part ; and wherein the support body has a Young's modulus of 1 GPa or more; and wherein the resonant portions are provided in contact with a sheet surface of the sheet ; characterized in that the sound insulating sheet member further comprises at least a sheet having rubber elasticity molded with the base part ; wherein the support body is provided in contact with at least one surface of the sheet of the sound insulating sheet member , and supports the sheet . the sound insulating sheet member comprising a plurality of resonant portions , wherein each of the resonant portions including a base part and a weight part , and the weight part being supported by the base part and having a larger mass than the base part ; and wherein the support body has a Young's modulus of 1 GPa or more; and wherein the resonant portions are provided in contact with a sheet surface of the sheet ; characterized in that the sound insulating sheet member further comprises at least a sheet having rubber elasticity molded with the base part ; wherein the support body is provided in contact with at least one surface of the sheet of the sound insulating sheet member , and supports the sheet .
Computing system having a computing device , wherein - the computing system has an input data path , which unidirectionally connects an interface device of the computing system to the computing device , and an output data diode , which unidirectionally connects the computing device to at least one output interface of the computing system , characterized in that - the input data path has a series circuit which is arranged downstream of the interface device and comprises an input data diode and a data lock , - the input data diode allows data to be transmitted in the direction of the computing device and prevents this in the opposite direction, and - the data lock has a first and a second connection and a buffer for buffering data (D) and is configured such that the buffer can either be exclusively connected to the first or second connection, but not to both connections at the same time. - the computing system has an input data path , which unidirectionally connects an interface device of the computing system to the computing device , and an output data diode , which unidirectionally connects the computing device to at least one output interface of the computing system , - the input data path has a series circuit which is arranged downstream of the interface device and comprises an input data diode and a data lock , - the input data diode allows data to be transmitted in the direction of the computing device and prevents this in the opposite direction, and - the data lock has a first and a second connection and a buffer for buffering data (D) and is configured such that the buffer can either be exclusively connected to the first or second connection, but not to both connections at the same time.