mhurhangee/patent-ind-claim-en huggingface dataset:
An absorbent article having a center chassis, the center chassis comprising a topsheet , a backsheet and an absorbent core , the absorbent article comprising: a front waist region and a front waist edge, the absorbent article comprises: a front inner belt portion disposed in the front waist region; a front outer belt portion disposed in the front waist region; a first plurality of elastics disposed in the front inner belt portion and inward of the front outer belt portion; and a second plurality of elastics disposed in the front outer belt portion and outward of the front inner belt portion; wherein the second plurality of elastics comprise anchoring elastics; wherein the first plurality of elastics comprise shaping elastics; wherein the absorbent article is disposable and wearable, characterized in that the shaping elastics and the anchoring elastics are separated from each other by one or more layers of material. a front waist region and a front waist edge, the absorbent article comprises: a front inner belt portion disposed in the front waist region; a front outer belt portion disposed in the front waist region; a first plurality of elastics disposed in the front inner belt portion and inward of the front outer belt portion; and a second plurality of elastics disposed in the front outer belt portion and outward of the front inner belt portion; a front inner belt portion disposed in the front waist region; a front outer belt portion disposed in the front waist region; a first plurality of elastics disposed in the front inner belt portion and inward of the front outer belt portion; and a second plurality of elastics disposed in the front outer belt portion and outward of the front inner belt portion; wherein the second plurality of elastics comprise anchoring elastics; wherein the first plurality of elastics comprise shaping elastics; wherein the absorbent article is disposable and wearable, characterized in that the shaping elastics and the anchoring elastics are separated from each other by one or more layers of material.
A composition comprising: (A) a propylene-based polymer which is a propylene homopolymer or a propylene copolymer consisting of at least 90 wt% of propylene monomer units and at most 10 wt% of ethylene monomer units and/or an α-olefin monomer units having 4 to 10 carbon atoms, (B) an elastomer of ethylene and an α-olefin comonomer having 4 to 10 carbon atoms, wherein the elastomer has a density of 0.850 to 0.865 g/cm 3 and a melt flow index of 0.1 to 20 dg/min measured in accordance with ASTM D1238 using a 2.16 kg weight and at a temperature of 190 °C and (C) a block copolymer comprising a terminal block comprising styrene or alpha-methylstyrene. (A) a propylene-based polymer which is a propylene homopolymer or a propylene copolymer consisting of at least 90 wt% of propylene monomer units and at most 10 wt% of ethylene monomer units and/or an α-olefin monomer units having 4 to 10 carbon atoms, (B) an elastomer of ethylene and an α-olefin comonomer having 4 to 10 carbon atoms, wherein the elastomer has a density of 0.850 to 0.865 g/cm 3 and a melt flow index of 0.1 to 20 dg/min measured in accordance with ASTM D1238 using a 2.16 kg weight and at a temperature of 190 °C and (C) a block copolymer comprising a terminal block comprising styrene or alpha-methylstyrene.
A semiconductor device comprising: a first periodic signal generation unit which generates a first periodic signal; a second periodic signal generation unit which generates a second periodic signal from the first periodic signal; a third periodic signal generation unit which generates a third periodic signal from the first periodic signal; a determination unit which determines whether or not a frequency ratio between a pair of periodic signals in a group is substantially constant for each of a group of the first and second periodic signals, a group of the second and third periodic signals, and a group of the first and third periodic signals; and a failure part specification unit which specifies the periodic signal generation unit corresponding to the periodic signal commonly included in two groups out of the first , second , and third periodic signal generation units as a failure part in a case where the ratio is not substantially constant in the two groups. a first periodic signal generation unit which generates a first periodic signal; a second periodic signal generation unit which generates a second periodic signal from the first periodic signal; a third periodic signal generation unit which generates a third periodic signal from the first periodic signal; a determination unit which determines whether or not a frequency ratio between a pair of periodic signals in a group is substantially constant for each of a group of the first and second periodic signals, a group of the second and third periodic signals, and a group of the first and third periodic signals; and a failure part specification unit which specifies the periodic signal generation unit corresponding to the periodic signal commonly included in two groups out of the first , second , and third periodic signal generation units as a failure part in a case where the ratio is not substantially constant in the two groups.
A process for producing a fiber-foam composite (FSV1), which comprises the following steps: a) provision of a first foam body (SK1) which has a first structured surface (OS1), b) provision of a first fiber material (FM1), c) application of the first fiber material (FM1) to at least part of the first structured surface (OS1) of the first foam body (SK1) to give an intermediate (ZP) having a first structured fiber surface (F01) which has the same profile as the first structured surface (OS1), d) provision of a second foam body (SK2) which has a second structured surface (OS2) whose profile is inverse to the profile of the first structured fiber surface (F01) of the intermediate (ZP) and e) application of the second structured surface (OS2) of the second foam body (SK2) to at least part of the first structured fiber surface (FO1) of the intermediate (ZP) to give the fiber-foam composite (FSV1) in which the first structured fiber surface (F01) of the intermediate (ZP) and the second structured surface (OS2) of the second foam body (SK2) are joined to one another. a) provision of a first foam body (SK1) which has a first structured surface (OS1), b) provision of a first fiber material (FM1), c) application of the first fiber material (FM1) to at least part of the first structured surface (OS1) of the first foam body (SK1) to give an intermediate (ZP) having a first structured fiber surface (F01) which has the same profile as the first structured surface (OS1), d) provision of a second foam body (SK2) which has a second structured surface (OS2) whose profile is inverse to the profile of the first structured fiber surface (F01) of the intermediate (ZP) and e) application of the second structured surface (OS2) of the second foam body (SK2) to at least part of the first structured fiber surface (FO1) of the intermediate (ZP) to give the fiber-foam composite (FSV1) in which the first structured fiber surface (F01) of the intermediate (ZP) and the second structured surface (OS2) of the second foam body (SK2) are joined to one another.
Sensor for electromagnetic radiation of microwave and terahertz frequencies comprising a bow-tie shaped semiconductor planar structure asymmetrically broadening from the center to opposite sides, wherein one side of the structure broadens more sharply than the opposite one, thereby forming a sharply broadening region and a gradually broadening region , and said bow-tie shaped planar structure includes: a semiconductor base containing: a semiconductor active region defined by the sharply broadening part , and regions of heavier doped semiconductor , doped at least by two orders in magnitude heavier as compared with the doping of the active region , defined by the gradually broadening part and at least by a part extending outwardly the sharply broadening part , the heavier doped semiconductor regions are covered with a metal layer , and an ohmic contact is formed between it and the semiconductor regions , characterized in that the said metal layer is extended inwardly to the center of the active region above the any end of the semiconductor active region by partially covering it and forming a gate which has a non-ohmic contact with the part of the semiconductor active region below it. a semiconductor active region defined by the sharply broadening part , and regions of heavier doped semiconductor , doped at least by two orders in magnitude heavier as compared with the doping of the active region , defined by the gradually broadening part and at least by a part extending outwardly the sharply broadening part , the heavier doped semiconductor regions are covered with a metal layer , and an ohmic contact is formed between it and the semiconductor regions , characterized in that the said metal layer is extended inwardly to the center of the active region above the any end of the semiconductor active region by partially covering it and forming a gate which has a non-ohmic contact with the part of the semiconductor active region below it.
A method of controlling a multi-channel multi-phase electrical machine comprising a plurality of channels (C1, C2, ...) each with a set of phase windings (WA1, WB1, WC1; WA2, WB2, WC2; ...) connected to a converter (M1, M2, ...), which method comprises the steps of operating the converters (M1, M2, ...) to electrically phase-shift the channels (C1, C2, ...); and, for each channel: - computing harmonic injection currents (I d6 , I q6 ) for a dominant harmonic on the basis of electrical quantities (V dq , I dq ) in a rotating reference frame, wherein the injection currents (I d6 , I q6 ) are computed on the basis of a target ripple value (P6_ref, V6_ref, R 6 ) for the dominant harmonic , which target ripple value (P6_ref, V6_ref, R 6 ) comprises a target power ripple component and a target voltage ripple component; - determining harmonic voltage references (V d6* , V q6* ) for the dominant harmonic on the basis of the harmonic injection currents (I d6 , I q6 ); and - regulating the AC output voltages (V C ) of that channel (C1, C2, ...) of the multi-channel multi-phase electrical machine according to the fundamental voltage references (V d* , V q* ) and the harmonic voltage references (V d6* , V q6* ). - computing harmonic injection currents (I d6 , I q6 ) for a dominant harmonic on the basis of electrical quantities (V dq , I dq ) in a rotating reference frame, wherein the injection currents (I d6 , I q6 ) are computed on the basis of a target ripple value (P6_ref, V6_ref, R 6 ) for the dominant harmonic , which target ripple value (P6_ref, V6_ref, R 6 ) comprises a target power ripple component and a target voltage ripple component; - determining harmonic voltage references (V d6* , V q6* ) for the dominant harmonic on the basis of the harmonic injection currents (I d6 , I q6 ); and - regulating the AC output voltages (V C ) of that channel (C1, C2, ...) of the multi-channel multi-phase electrical machine according to the fundamental voltage references (V d* , V q* ) and the harmonic voltage references (V d6* , V q6* ).
A consumable level monitoring label sheet for physical association with a content-filled consumable to allow for monitoring of a level of the content therein, comprising: a plurality of labels , each individually manually removable from the label sheet and each comprising a plurality of electrical conductors forming a sensing module , the sensing module having associated therewith firmware for converting signals associated with the electrical conductors and to an indication of the content level; a communications module for communicating the content level to at least a user display and over at least one network; and a power module for powering at least the sensing module and the communications module ; a plurality of perforations associated with each of the plurality of labels , wherein the plurality of perforations provides for variations in a size of each of the labels upon the manual removal. a plurality of labels , each individually manually removable from the label sheet and each comprising a plurality of electrical conductors forming a sensing module , the sensing module having associated therewith firmware for converting signals associated with the electrical conductors and to an indication of the content level; a communications module for communicating the content level to at least a user display and over at least one network; and a power module for powering at least the sensing module and the communications module ; a plurality of electrical conductors forming a sensing module , the sensing module having associated therewith firmware for converting signals associated with the electrical conductors and to an indication of the content level; a communications module for communicating the content level to at least a user display and over at least one network; and a power module for powering at least the sensing module and the communications module ; a plurality of perforations associated with each of the plurality of labels , wherein the plurality of perforations provides for variations in a size of each of the labels upon the manual removal.
A method for producing glass preliminary products and glass products, comprising the steps of: - providing glass tubing or tubular glass preliminary product; - laser-based irradiation of the glass tubing or glass preliminary product with focused radiation to produce filaments in a desired separation plane of the glass tubing or of the glass preliminary product; - wherein said irradiation with focused radiation in the separation plane for producing the filaments is executed at an oblique irradiation angle (α) deviating from the perpendicular to the local surface of the glass tubing or glass preliminary product; wherein said filaments extend inward from outside. - providing glass tubing or tubular glass preliminary product; - laser-based irradiation of the glass tubing or glass preliminary product with focused radiation to produce filaments in a desired separation plane of the glass tubing or of the glass preliminary product; - wherein said irradiation with focused radiation in the separation plane for producing the filaments is executed at an oblique irradiation angle (α) deviating from the perpendicular to the local surface of the glass tubing or glass preliminary product; wherein said filaments extend inward from outside.
A method for controlling the transfer of a known-type or an unknown-type fuel from a first location to a second location with a known-type or an unknown type fuel, comprising the following steps of: a. determining the unknown fuel type in at least one of said locations, b. comparing the fuel type in the second location with the fuel type in the first location, c. permitting fuel transfer, in case the fuel type in the first location matches with the fuel type in the second location, and preventing the transfer otherwise, wherein the determination in the step a comprises measuring the density and temperature, or measuring the density and pressure of a gaseous form of the unknown fuel in the respective location(s), and comparing the measured values with a data set comprising predetermined reference values or making a decision through a mathematical modelling. a. determining the unknown fuel type in at least one of said locations, b. comparing the fuel type in the second location with the fuel type in the first location, c. permitting fuel transfer, in case the fuel type in the first location matches with the fuel type in the second location, and preventing the transfer otherwise,
A cooking device comprising a body ; a cooking cavity which is disposed in the body and wherein the foodstuffs to be cooked are placed; a casing in the form of a box with the front side open which surrounds the cooking cavity ; a heater which is disposed in the cooking cavity and which provides the cooking of the foodstuffs; a door which is disposed on the body and which has a closed position for interrupting the contact between the cooking cavity and the outer environment, and an open position for enabling the user to access the cooking cavity ; a sealing element which is positioned between the cooking cavity and the door when the door is in the closed position and at least one opening which is arranged on the sealing element and which enables the liquid collected upon the condensation of the steam formed during the cooking process to be moved away from the cooking cavity ; a first receptacle which is disposed on the body under the sealing element and wherein the liquid passing through the opening is collected, characterized by a second receptacle which is disposed on the door and wherein the water droplets formed on the door during the cooking process are collected, and a discharge opening which is arranged on the first receptacle and which provides the discharge of the liquid collected on the first receptacle .
An end-to-end data transmission method, the method is applied in a Device to Device, D2D, communication system and comprises: determining (S310), by a sending terminal, a first time-frequency resource for sending data to a receiving terminal; and sending (S320), by the sending terminal, the data to the receiving terminal on the first time-frequency resource, characterized in that the sending terminal sends data to other receiving terminals while sending the data to the receiving terminal, and the sending terminal sends data to the other receiving terminals in at least one of the following modes: the data sent to at least one of the other receiving terminals is different from the data sent to the receiving terminal, or, the data sent to at least two of the other receiving terminals is different. determining (S310), by a sending terminal, a first time-frequency resource for sending data to a receiving terminal; and sending (S320), by the sending terminal, the data to the receiving terminal on the first time-frequency resource, characterized in that the sending terminal sends data to other receiving terminals while sending the data to the receiving terminal, and the sending terminal sends data to the other receiving terminals in at least one of the following modes: the data sent to at least one of the other receiving terminals is different from the data sent to the receiving terminal, or, the data sent to at least two of the other receiving terminals is different.
A coordinate measuring unit comprising a measuring probe and a processing device configured to compute shape coordinates of an object (W) to be measured on a basis of an output of the measuring probe , wherein the measuring probe has a first identification code ; and the processing device includes a first determination portion configured to determine whether the first identification code outputted from the measuring probe is matched with a matching code (MC), a downstream determination portion configured to identify a second identification code outputted from the measuring probe to thereby recognize the measuring probe when the first identification code is matched with the matching code (MC) in the first determination portion and the measuring probe further has the second identification code , and a communication portion configured to, when the first identification code is matched with the matching code (MC) in the first determination portion , send to the measuring probe a request for output of the second identification code and cause the measuring probe to output the second identification code . a first determination portion configured to determine whether the first identification code outputted from the measuring probe is matched with a matching code (MC), a downstream determination portion configured to identify a second identification code outputted from the measuring probe to thereby recognize the measuring probe when the first identification code is matched with the matching code (MC) in the first determination portion and the measuring probe further has the second identification code , and a communication portion configured to, when the first identification code is matched with the matching code (MC) in the first determination portion , send to the measuring probe a request for output of the second identification code and cause the measuring probe to output the second identification code .
An acoustic device , comprising: a vibration speaker configured to produce a vibration signal representing a sound according to an electrical signal; a delivery mechanism mechanically connected to the vibration speaker , the delivery mechanism being configured to contact a user via a contact portion on the delivery mechanism , and deliver the vibration signal to the user via the contact portion , the contact portion on the delivery mechanism being at a distance from the vibration speaker and having a less vibration intensity than that of the vibration speaker ; and a support component mechanically connected to the vibration speaker via the delivery mechanism , the support component being configured to support the delivery mechanism ; characterized in that , the delivery mechanism includes an elastic element, and the elastic element includes at least one arc portion . a vibration speaker configured to produce a vibration signal representing a sound according to an electrical signal; a delivery mechanism mechanically connected to the vibration speaker , the delivery mechanism being configured to contact a user via a contact portion on the delivery mechanism , and deliver the vibration signal to the user via the contact portion , the contact portion on the delivery mechanism being at a distance from the vibration speaker and having a less vibration intensity than that of the vibration speaker ; and a support component mechanically connected to the vibration speaker via the delivery mechanism , the support component being configured to support the delivery mechanism ; characterized in that , the delivery mechanism includes an elastic element, and the elastic element includes at least one arc portion .
A flowmeter for liquids, having a measuring housing (10; 110) which encloses and rotatably mounts an impeller (50; 150), a supply pipe , a discharge pipe , at least one sensor encoder (50; 160) which is assigned to the impeller (50; 150), and a sensor which is provided on the measuring housing (10; 110) and responds to the sensor encoder (50; 160) and has the purpose of determining the amount of fluid flowing through the measuring housing (10; 110), on the basis of the revolutions of the impeller (50; 150), wherein the measuring housing (10; 110) is a pipe which comprises the supply pipe and the discharge pipe in one piece, wherein a nozzle-forming constriction is arranged eccentrically in the measuring housing (10; 110) between the supply pipe and the discharge pipe , wherein the impeller (50; 150) is rotatably mounted in the discharge pipe downstream of the nozzle-forming constriction , wherein the outer diameter (52-52; 152-152) corresponding to the impeller is smaller than the nominal inner diameter of the discharge pipe , wherein the impeller (50; 150) has, in the plan view in the axial pipe direction an outer face (52; 53) in each rotational position, such that the impeller (50; 150) fits into the free space provided by the discharge pipe , wherein the impeller (50; 150) has two side walls , on each of which a bearing element is provided axially in the center, said bearing element being assigned to a rotary bearing (66; 166) which is assigned to the discharge pipe .