mhurhangee/ep-ind-claims huggingface dataset:
An olefin-based polymer satisfying the following conditions to: a melt index under 190°C and 2.16 kg load conditions according to ASTM D1238 is from 0.1 g/10 min to 10.0 g/10 min, a density (d) is from 0.860 g/cc to 0.880 g/cc, and T -T ≤50 and T -T ≥10 are satisfied when measured by a differential scanning calorimetry precise measurement method, wherein T, T and T are temperatures at which 50%, 90%, and 95% are melted, respectively, when fractionating a temperature-heat capacity curve from measurement results by the differential scanning calorimetry precise measurement method wherein the olefin-based polymer is a copolymer of ethylene and any one selected from the group consisting of propylene, 1-butene, 1-pentene, 4-methyl-1-pentene, 1-hexene, 1-heptene, and 1-octene, or mixtures of two or more thereof, wherein the measurement of a melting temperature (Tm) using differential scanning calorimetry is performed by a first cycle including heating to a temperature higher by 30°C than the melting temperature (Tm) at a constant rate and cooling to a temperature lower by 30°C than a glass transition temperature (Tg) at a constant rate, and a second cycle to obtain the peak of a standard melting temperature (Tm), wherein the differential scanning calorimetry precise measurement method is a method of obtaining crystal information by undergoing a process of heating immediately before the peak of a melting temperature (Tm) and cooling after the first cycle using differential scanning calorimetry, and repeatedly performing heating to a temperature reduced by 5°C and cooling. a melt index under 190°C and 2.16 kg load conditions according to ASTM D1238 is from 0.1 g/10 min to 10.0 g/10 min, a density (d) is from 0.860 g/cc to 0.880 g/cc, and T -T ≤50 and T -T ≥10 are satisfied when measured by a differential scanning calorimetry precise measurement method, wherein T, T and T are temperatures at which 50%, 90%, and 95% are melted, respectively, when fractionating a temperature-heat capacity curve from measurement results by the differential scanning calorimetry precise measurement method wherein the olefin-based polymer is a copolymer of ethylene and any one selected from the group consisting of propylene, 1-butene, 1-pentene, 4-methyl-1-pentene, 1-hexene, 1-heptene, and 1-octene, or mixtures of two or more thereof, wherein the measurement of a melting temperature (Tm) using differential scanning calorimetry is performed by a first cycle including heating to a temperature higher by 30°C than the melting temperature (Tm) at a constant rate and cooling to a temperature lower by 30°C than a glass transition temperature (Tg) at a constant rate, and a second cycle to obtain the peak of a standard melting temperature (Tm), wherein the differential scanning calorimetry precise measurement method is a method of obtaining crystal information by undergoing a process of heating immediately before the peak of a melting temperature (Tm) and cooling after the first cycle using differential scanning calorimetry, and repeatedly performing heating to a temperature reduced by 5°C and cooling.
Reading device, in particular for the visually impaired, having a planar and transparent support for reading material and am image recording device for detecting a text and/or an image of at least a portion of the reading material through the support, characterised in that a support element which can be pivoted relative to the support about a pivot axis is associated with the support, wherein the support element can be pivoted in order to position the support into an operating position which is inclined at a definable angle with respect to a vertical direction and into a transport or rest position with the support and support element substantially abutting each other.
A packaging substrate comprising: a core substrate; an insulating layer formed on one surface or each of both surfaces of the core substrate; and at least one wiring layer formed on the insulating layer and/or embedded in the insulating layer, wherein the packaging substrate has a thin layer portion where the insulating layer is partially thinned at an outer peripheral portion of the insulating layer, wherein the partially thinned outer peripheral portion of the insulating layer abuts against the core substrate, so as to form a stepped portion and prevent breakage of the core substrate; wherein the core substrate is made of glass; characterised in that the thin layer portion has a width w 3 [m] between an end of the thin layer portion and a stepped surface of the insulating layer, wherein the width w 3 is 120 μm or more. a core substrate; an insulating layer formed on one surface or each of both surfaces of the core substrate; and at least one wiring layer formed on the insulating layer and/or embedded in the insulating layer, wherein the packaging substrate has a thin layer portion where the insulating layer is partially thinned at an outer peripheral portion of the insulating layer, wherein the partially thinned outer peripheral portion of the insulating layer abuts against the core substrate, so as to form a stepped portion and prevent breakage of the core substrate; wherein the core substrate is made of glass; characterised in that the thin layer portion has a width w 3 [m] between an end of the thin layer portion and a stepped surface of the insulating layer, wherein the width w 3 is 120 μm or more.
A method of wirelessly transferring power from a transmitter to a receiver, the method comprising: transferring a signal for detecting the receiver; receiving an identification signal including information of a receivable power of the receiver from the receiver; transferring first power to the receiver; receiving a power increasing request signal from the receiver; determining second transfer coil current of the transmitter based on first transfer coil current of the transmitter corresponding to the first power and the power increasing request signal; determining second power based on the second transfer coil current; and determining whether the second power is transferred, characterized in that when the second power is greater than the receivable power of the receiver, the determining whether the second power is transferred is comprising: comparing a first difference between the receivable power of the receiver and the second power with a power threshold; and comparing a second difference between the receivable power of the receiver and an over shoot peak value corresponding to the second power with the power threshold. transferring a signal for detecting the receiver; receiving an identification signal including information of a receivable power of the receiver from the receiver; transferring first power to the receiver; receiving a power increasing request signal from the receiver; determining second transfer coil current of the transmitter based on first transfer coil current of the transmitter corresponding to the first power and the power increasing request signal; determining second power based on the second transfer coil current; and determining whether the second power is transferred, comparing a first difference between the receivable power of the receiver and the second power with a power threshold; and comparing a second difference between the receivable power of the receiver and an over shoot peak value corresponding to the second power with the power threshold.
A method for storing load carriers in a rack, wherein a load limit according to a static assessment is assigned to the rack with respect to the load with load carriers, wherein the rack has fields each with multiple compartments, and the compartments each have a plurality of storage locations for load carriers, wherein the method comprises determining a storage location, wherein a control unit is used to determine the storage location, wherein the determination of the storage location comprises: - receiving a first piece of information regarding the spatial allocation and respective load of storage locations of one or more of the compartments occupied by any load carriers, - receiving a second piece of information regarding the spatial location of one or more free storage locations of the compartment(s), - receiving a third piece of information regarding the weight of the load carrier to be stored, - determining the free storage location of the compartment(s) to be used for storing the load carrier on the basis of the first, second, and third pieces of information and the load limit, wherein the determination is carried out such that the load limit is not exceeded by the storage of the load carrier, characterized in that the control unit is provided with a plurality of assignments for the compartments, wherein each assignment specifies which free storage location of the compartments can be used for storing load carriers, depending on a combination of pieces of information, wherein each combination of pieces of information comprises an individual combination variant of spatial allocations and loads of storage locations occupied by load carriers, the spatial location of one or more free storage locations of the compartments and weights of a load carrier to be stored, wherein the first, second, and third pieces of information are transmitted as a current combination of pieces of information to the control unit for the determination of the storage location, and wherein, as a response to the transmission on the basis of the assignments, the free storage location to be assigned to this current combination of pieces of information and to be used for storage is determined by the control unit. - receiving a first piece of information regarding the spatial allocation and respective load of storage locations of one or more of the compartments occupied by any load carriers, - receiving a second piece of information regarding the spatial location of one or more free storage locations of the compartment(s), - receiving a third piece of information regarding the weight of the load carrier to be stored, - determining the free storage location of the compartment(s) to be used for storing the load carrier on the basis of the first, second, and third pieces of information and the load limit, wherein the determination is carried out such that the load limit is not exceeded by the storage of the load carrier,
A magnetometer-based metal detection device, comprising: a proximal portion, a rigid central body and a flexible distal portion; at least one magnetometer positioned within or on the distal portion, wherein the at least one magnetometer includes at least one sensor capable of sensing a magnetic field; a user interface; and a processor communicatively coupled with the at least one magnetometer, wherein the processor is configured to: receive magnetic field data from a communication interface of the at least one magnetometer, and provide a signal to the user interface to provide or change an output in response to a change in a relative proximity of the at least one magnetometer to a metal object based on the magnetic field data, characterised in that: the rigid central body is a tubular member having a diameter between 2 and 20 mm and a length between 1 and 60 cm; and in that the magnetometer-based metal detection device further comprises an actuator positioned within or on the proximal portion, wherein the actuator engages one or more wires extending through the rigid central body, wherein the one or more wires is connected to the flexible distal portion, and wherein the flexible distal portion is configured to be moved via the one or more wires in response to an actuation of the actuator. a proximal portion, a rigid central body and a flexible distal portion; at least one magnetometer positioned within or on the distal portion, wherein the at least one magnetometer includes at least one sensor capable of sensing a magnetic field; a user interface; and a processor communicatively coupled with the at least one magnetometer, wherein the processor is configured to: receive magnetic field data from a communication interface of the at least one magnetometer, and provide a signal to the user interface to provide or change an output in response to a change in a relative proximity of the at least one magnetometer to a metal object based on the magnetic field data, characterised in that: the rigid central body is a tubular member having a diameter between 2 and 20 mm and a length between 1 and 60 cm; and in that the magnetometer-based metal detection device further comprises an actuator positioned within or on the proximal portion, wherein the actuator engages one or more wires extending through the rigid central body, wherein the one or more wires is connected to the flexible distal portion, and wherein the flexible distal portion is configured to be moved via the one or more wires in response to an actuation of the actuator. the rigid central body is a tubular member having a diameter between 2 and 20 mm and a length between 1 and 60 cm; and in that the magnetometer-based metal detection device further comprises an actuator positioned within or on the proximal portion, wherein the actuator engages one or more wires extending through the rigid central body, wherein the one or more wires is connected to the flexible distal portion, and wherein the flexible distal portion is configured to be moved via the one or more wires in response to an actuation of the actuator.
One-person electric vehicle including a chassis carrying three wheels (4, 4, 7) divided into two rolling assemblies including a first rolling assembly (4, 4) fixedly mounted on the chassis and a second rolling assembly pivotally mounted on the chassis, at least one of the rolling assemblies being electrically motorized, the chassis carrying: - a platform for receiving a standing driver arranged behind a pole with reference to a direction of travel of the vehicle; - a platform for receiving a load placed in front of the pole; - an orientating actuator having a drive shaft (16; 160) connected in rotation to the pivoting rolling assembly by a rotational connection member and controlled by means of a steering control member; the orientation actuator being arranged between the two platforms, the load-receiving platform extending directly above the second rolling assembly; characterised in that the second rolling assembly includes a single wheel and has a single pivot for pivotally mounting it on the chassis so that the rotational connection member extends under the load-receiving platform to connect the drive shaft of the orientating actuator directly to the pivot of the pivoting rolling assembly. - a platform for receiving a standing driver arranged behind a pole with reference to a direction of travel of the vehicle; - a platform for receiving a load placed in front of the pole; - an orientating actuator having a drive shaft (16; 160) connected in rotation to the pivoting rolling assembly by a rotational connection member and controlled by means of a steering control member;
A flush toilet apparatus comprising a flush toilet main body and a sanitary washing apparatus mounted on a rear portion of a top surface of the toilet main body, the sanitary washing apparatus comprising: a bent supply pipe extending from a connecting base end portion toward an inside in a left-right direction of the flush toilet main body to supply wash water to the sanitary washing apparatus, the connecting base end portion being disposed on a side end portion of a bottom surface of the sanitary washing apparatus; a wash water supply pipe connected to the bent supply pipe, to supply the wash water into the bent supply pipe; and an affixing member, disposed between the bottom surface of the sanitary washing apparatus and the top surface of the toilet main body, for affixing the sanitary washing apparatus to the flush toilet main body; wherein an affixing hole for affixing the affixing member to the flush toilet main body, and a pipe opening for admitting the wash water supply pipe are formed on the top surface of the toilet main body; the affixing hole and the pipe opening are formed so as to be covered by the sanitary washing apparatus mounted on the top surface; the pipe opening is positioned on an outer side of the affixing hole in a left-right direction of the flush toilet main body; characterised in that a center point in a front-back direction of the pipe opening is positioned on a front side of a center point in the front-back direction of the affixing hole; and the pipe opening, as seen in plan view, is formed so that a center point in the front-back direction of the pipe opening is positioned on an inner side of the connecting base end portion in the left-right direction of the flush toilet main body. a bent supply pipe extending from a connecting base end portion toward an inside in a left-right direction of the flush toilet main body to supply wash water to the sanitary washing apparatus, the connecting base end portion being disposed on a side end portion of a bottom surface of the sanitary washing apparatus; a wash water supply pipe connected to the bent supply pipe, to supply the wash water into the bent supply pipe; and an affixing member, disposed between the bottom surface of the sanitary washing apparatus and the top surface of the toilet main body, for affixing the sanitary washing apparatus to the flush toilet main body; wherein an affixing hole for affixing the affixing member to the flush toilet main body, and a pipe opening for admitting the wash water supply pipe are formed on the top surface of the toilet main body; the affixing hole and the pipe opening are formed so as to be covered by the sanitary washing apparatus mounted on the top surface; the pipe opening is positioned on an outer side of the affixing hole in a left-right direction of the flush toilet main body;
A method of determining a distance to a surface of a product kept in a tank, said method comprising: - forming a transmit signal as a pulse train of distinct carrier wave pulses having a duration greater than 1 microsecond and shorter than 100 milliseconds, - frequency modulating each carrier wave pulse around a defined center frequency with a periodic modulation having a modulation frequency, - transmitting (step S1) said transmit signal towards said surface, - receiving (step S2) an electromagnetic return signal reflected at said surface, - mixing (step S3) the return signal with the transmit signal in a first channel (I-channel) and mixing the return signal with a 90° phase shifted transmit signal in a second channel (Q-channel), to provide two IF (intermediate frequency) signals, filtering said IF signals to provide a filtered signal corresponding to a first selected harmonic of said modulation frequency, mixing the filtered signals of each channel with said first selected harmonic of said modulation frequency, to provide two primary amplitude values (I and Q) (step S4), calculating (step S5) actual phase properties of each distinct pulse received in relation to each corresponding distinct pulse transmitted, based on said primary amplitude values and determining a distance measure based on said actual phase properties, filtering said IF signals to provide a filtered signal corresponding to a second selected harmonic of said modulation frequency, said second harmonic being different than said first harmonic, mixing the filtered signals of each channel with said second selected harmonic of said modulation frequency, to provide two secondary amplitude values (I and Q) (step S5), and providing (step S6) an approximation of said distance based on a relationship between said primary and said secondary amplitude values. - forming a transmit signal as a pulse train of distinct carrier wave pulses having a duration greater than 1 microsecond and shorter than 100 milliseconds, - frequency modulating each carrier wave pulse around a defined center frequency with a periodic modulation having a modulation frequency, - transmitting (step S1) said transmit signal towards said surface, - receiving (step S2) an electromagnetic return signal reflected at said surface, - mixing (step S3) the return signal with the transmit signal in a first channel (I-channel) and mixing the return signal with a 90° phase shifted transmit signal in a second channel (Q-channel), to provide two IF (intermediate frequency) signals,
A communication apparatus comprising: a first wireless communication unit that performs a wireless communication in conformity with a first communication method; and a second wireless communication unit that can perform a directional wireless communication in conformity with a second communication method using a frequency band higher than the first communication method, wherein a control frame including control information for effecting a coordination with one or more communication parties that perform a wireless communication in conformity with the second communication method is transmitted from the first wireless communication unit, characterized in that with respect to the one or more communication parties, a frame including information for specifying a timing when the one or more communication parties should transmit a link maintenance frame for checking a validity of a communication link in conformity with the second communication method is transmitted from the first wireless communication unit in conformity with the first communication method, and wherein at the transmission timing, the second wireless communication unit transmits the link maintenance frame in conformity with the second communication method. a first wireless communication unit that performs a wireless communication in conformity with a first communication method; and a second wireless communication unit that can perform a directional wireless communication in conformity with a second communication method using a frequency band higher than the first communication method, wherein a control frame including control information for effecting a coordination with one or more communication parties that perform a wireless communication in conformity with the second communication method is transmitted from the first wireless communication unit, characterized in that with respect to the one or more communication parties, a frame including information for specifying a timing when the one or more communication parties should transmit a link maintenance frame for checking a validity of a communication link in conformity with the second communication method is transmitted from the first wireless communication unit in conformity with the first communication method, and wherein at the transmission timing, the second wireless communication unit transmits the link maintenance frame in conformity with the second communication method.
An aircraft fuel system, comprising: a fuel tank; a fuel line; and an engine; wherein the fuel line includes a first conduit configured to carry fuel from the tank towards the engine, and a second conduit configured to carry fuel from the engine towards the tank, characterised in that one of the first conduit or the second conduit is disposed annularly around the other of the first conduit or the second conduit.