mhurhangee/patent-ind-claim-en huggingface dataset:
A spill containment boom unit for deployment in ambient water in an axially extending arrangement, comprising: one or more surfaces configured to form at least one hollow chamber with walls substantially surrounding the chamber in a plane transverse to said axis, wherein at least one segment defines at least one wall of said hollow chamber, each segment comprising at least one compartment filled with gas; wherein when said boom unit is deployed, said chamber defines one or more openings through which ambient water can flow; said boom unit characterized in that sponge material is provided within and/or between segments, optionally near a fold location, said sponge material suitable for assisting in setting a shape of said boom unit when said boom unit is deployed, said sponge material suitable for absorbing water; said chamber sized to interfere with the motion of a volume of said ambient water contained within it, said volume sufficient for stabilizing said boom unit . one or more surfaces configured to form at least one hollow chamber with walls substantially surrounding the chamber in a plane transverse to said axis, wherein at least one segment defines at least one wall of said hollow chamber, each segment comprising at least one compartment filled with gas; wherein when said boom unit is deployed, said chamber defines one or more openings through which ambient water can flow; said boom unit characterized in that sponge material is provided within and/or between segments, optionally near a fold location, said sponge material suitable for assisting in setting a shape of said boom unit when said boom unit is deployed, said sponge material suitable for absorbing water; said chamber sized to interfere with the motion of a volume of said ambient water contained within it, said volume sufficient for stabilizing said boom unit .
A brush for a cleaning robot, comprising: a brush body , comprising: a rotating shaft having a first end portion and a second end portion ; bristles ; a first detachable baffle detachably mounted to the first end portion ; and a second detachable baffle detachably mounted to the second end portion ; characterized in that , the first end portion comprises a first mounting portion and a second mounting portion , the first mounting portion is configured to match a shape of the first detachable baffle , and the second mounting portion is configured to match a structure of a first side wall of a member housing ; and and in that the first end portion is provided with a foolproof structure , and the foolproof structure is configured so that the second mounting portion cannot extend into the first side wall of the member housing when the first detachable baffle is not mounted on the first mounting portion , so as to prevent missing mounting of the first detachable baffle . a brush body , comprising: a rotating shaft having a first end portion and a second end portion ; bristles ; a rotating shaft having a first end portion and a second end portion ; bristles ; a first detachable baffle detachably mounted to the first end portion ; and a second detachable baffle detachably mounted to the second end portion ; characterized in that , the first end portion comprises a first mounting portion and a second mounting portion , the first mounting portion is configured to match a shape of the first detachable baffle , and the second mounting portion is configured to match a structure of a first side wall of a member housing ; and and in that the first end portion is provided with a foolproof structure , and the foolproof structure is configured so that the second mounting portion cannot extend into the first side wall of the member housing when the first detachable baffle is not mounted on the first mounting portion , so as to prevent missing mounting of the first detachable baffle . the first end portion comprises a first mounting portion and a second mounting portion , the first mounting portion is configured to match a shape of the first detachable baffle , and the second mounting portion is configured to match a structure of a first side wall of a member housing ; and and in that the first end portion is provided with a foolproof structure , and the foolproof structure is configured so that the second mounting portion cannot extend into the first side wall of the member housing when the first detachable baffle is not mounted on the first mounting portion , so as to prevent missing mounting of the first detachable baffle .
An abnormal temperature detection device comprising: a temperature acquirer configured to acquire temperature data; a preprocessor configured to perform preprocessing for calculating difference data indicating a difference sequence in the temperature data, characterized in that the preprocessor is further configured to perform generating substituted data in which either of a piece of difference data which is a positive number or a piece of difference data which is a negative number is substituted with zero, and calculating a similarity between the substituted data and reference data obtained from training data in which normality or abnormality has been identified; and in that the abnormal temperature detection device comprises: a learner configured to perform machine learning on the similarity calculated by the preprocessor and output an identification function; and a determiner configured to determine whether temperature data for detection acquired by the temperature acquirer and subjected to the preprocessing by the preprocessor is normal or abnormal by using the identification function. a temperature acquirer configured to acquire temperature data; a preprocessor configured to perform preprocessing for calculating difference data indicating a difference sequence in the temperature data, characterized in that the preprocessor is further configured to perform generating substituted data in which either of a piece of difference data which is a positive number or a piece of difference data which is a negative number is substituted with zero, and calculating a similarity between the substituted data and reference data obtained from training data in which normality or abnormality has been identified; and in that the abnormal temperature detection device comprises: a learner configured to perform machine learning on the similarity calculated by the preprocessor and output an identification function; and a determiner configured to determine whether temperature data for detection acquired by the temperature acquirer and subjected to the preprocessing by the preprocessor is normal or abnormal by using the identification function. a learner configured to perform machine learning on the similarity calculated by the preprocessor and output an identification function; and a determiner configured to determine whether temperature data for detection acquired by the temperature acquirer and subjected to the preprocessing by the preprocessor is normal or abnormal by using the identification function.
A modular block for a unit for storing thermal energy, the block including: - elements for storing and releasing a thermal energy, - a chamber for receiving said elements , the receiving chamber being defined within outer walls of the block joined by a bottom closing on one side the chamber, which is open on another side, - at least one communication passage between the outside and the chamber, to make it possible to allow in and out of said chamber a refrigerating or heat-transfer fluid to be placed in the chamber in heat exchange relationship with said elements, - elements for the thermal management of the chamber, at least some of which include at least one layer of a thermally insulating material and others at least one layer of a phase change material (PCM, 15), and which are arranged around the chamber, - said at least one layer of thermally insulating material being arranged in pockets which are under controlled atmosphere and with flexible sheets or metal walls , and - said elements for storing and releasing thermal energy being non-tubular and being not arranged in an organised manner in said chamber , and/or said elements for storing and releasing thermal energy being arranged loosely in said chamber . - elements for storing and releasing a thermal energy, - a chamber for receiving said elements , the receiving chamber being defined within outer walls of the block joined by a bottom closing on one side the chamber, which is open on another side, - at least one communication passage between the outside and the chamber, to make it possible to allow in and out of said chamber a refrigerating or heat-transfer fluid to be placed in the chamber in heat exchange relationship with said elements, - elements for the thermal management of the chamber, at least some of which include at least one layer of a thermally insulating material and others at least one layer of a phase change material (PCM, 15), and which are arranged around the chamber, - said at least one layer of thermally insulating material being arranged in pockets which are under controlled atmosphere and with flexible sheets or metal walls , and - said elements for storing and releasing thermal energy being non-tubular and being not arranged in an organised manner in said chamber , and/or said elements for storing and releasing thermal energy being arranged loosely in said chamber .
A device comprising: a first Bluetooth communication device ; a separate second Bluetooth communication device ; and control circuitry configured to: Perform a first Bluetooth pairing procedure between the first Bluetooth communication device and a mobile device to establish a communication channel between the first Bluetooth communication device and the mobile device, Perform a second Bluetooth pairing procedure between the second Bluetooth communication device and the mobile device by exchanging pairing information for pairing the second Bluetooth communication device and the mobile device with the mobile device via the communication channel between the first Bluetooth communication device and the mobile device. a first Bluetooth communication device ; a separate second Bluetooth communication device ; and control circuitry configured to: Perform a first Bluetooth pairing procedure between the first Bluetooth communication device and a mobile device to establish a communication channel between the first Bluetooth communication device and the mobile device, Perform a second Bluetooth pairing procedure between the second Bluetooth communication device and the mobile device by exchanging pairing information for pairing the second Bluetooth communication device and the mobile device with the mobile device via the communication channel between the first Bluetooth communication device and the mobile device. Perform a first Bluetooth pairing procedure between the first Bluetooth communication device and a mobile device to establish a communication channel between the first Bluetooth communication device and the mobile device, Perform a second Bluetooth pairing procedure between the second Bluetooth communication device and the mobile device by exchanging pairing information for pairing the second Bluetooth communication device and the mobile device with the mobile device via the communication channel between the first Bluetooth communication device and the mobile device.
A method of transmission throttling for emission exposure management in wireless communication, the method comprising: monitoring , by emission exposure management logic of a processor-based wireless communication device, a time averaged power level of transmission of a plurality of transmission blocks in an emission exposure rolling average window; and implementing , by the emission exposure management logic of the processor-based wireless communication device, transmit throttling of the plurality of transmission blocks, the method further comprising: computing a transmit duty cycle for a transmit power control configuration level transmission if the monitored time averaged power level for transmission of the plurality of transmission blocks in the emission exposure rolling average window exceeds an emission exposure level limit, and implementing the computed transmit duty cycle via skipping one or more retransmissions of transmission blocks of a hybrid automatic repeat request, HARQ, process. monitoring , by emission exposure management logic of a processor-based wireless communication device, a time averaged power level of transmission of a plurality of transmission blocks in an emission exposure rolling average window; and implementing , by the emission exposure management logic of the processor-based wireless communication device, transmit throttling of the plurality of transmission blocks, the method further comprising: computing a transmit duty cycle for a transmit power control configuration level transmission if the monitored time averaged power level for transmission of the plurality of transmission blocks in the emission exposure rolling average window exceeds an emission exposure level limit, and implementing the computed transmit duty cycle via skipping one or more retransmissions of transmission blocks of a hybrid automatic repeat request, HARQ, process.
A two-dimensional dot matrix barcode encoding method, characterized in that a two-dimensional dot matrix barcode is composed of M×N virtual code point storage blocks , and a plurality of coordinate calibration blocks , a plurality of data storage blocks , a first indication block and a second indication block are formed respectively by filling code points into the virtual code point storage blocks , wherein code points filled in the plurality of coordinate calibration blocks are located in the center of the virtual code point storage block ; a code point filled in the first indication block is located in the center thereof, and the second indication block is not filled with a code point or is filled, in the center thereof, with an ink code point capable of reflecting a light having a specific wavelength; a direction and coordinate indication set indicative of a direction and a coordinate is formed by means of a combination of the first indication block and the second indication block ; the plurality of coordinate calibration blocks are separated from each other and distributed among the two-dimensional dot matrix barcode ; code points filled in the plurality of data storage blocks are used to store data information, and the code points filled in the plurality of data storage blocks are disposed away from the center of the virtual code point storage block ; and the plurality of coordinate calibration blocks and the plurality of data storage blocks have only one code point , where M≥4, N≥4, and M and N are both even numbers.
A power electronics arrangement , comprising: at least two power electronics units ; a cooling pipe comprising a supply line and a return line for cooling fluid; wherein an inlet of each power electronics unit is connected to the supply line and an outlet of each power electronics unit is attached to the return line ; wherein each power electronics unit comprises a longitudinal cooling plate with a cooling channel for a cooling fluid, the cooling plate having two opposite side faces , between which the cooling channel is arranged; wherein each power electronics unit comprises a plurality of power semiconductor modules attached to at least one side face of the cooling plate ; wherein the inlet of the cooling channel and the outlet of the cooling channel are arranged at a first longitudinal end of the cooling plate ; wherein the cooling channel reciprocates between the first longitudinal end and an opposite second longitudinal end of the cooling plate ; wherein each power electronics unit is mechanically attached to the cooling pipe via their cooling plates characterized in that the power electronics arrangement further comprises a support member , which is attached to the cooling pipe ; the cooling pipe is made of an extrusion profile, wherein the supply line and the return line are made of one piece; wherein the cooling plate of each power electronics unit is attached to the support member . at least two power electronics units ; a cooling pipe comprising a supply line and a return line for cooling fluid; wherein an inlet of each power electronics unit is connected to the supply line and an outlet of each power electronics unit is attached to the return line ; wherein each power electronics unit comprises a longitudinal cooling plate with a cooling channel for a cooling fluid, the cooling plate having two opposite side faces , between which the cooling channel is arranged; wherein each power electronics unit comprises a plurality of power semiconductor modules attached to at least one side face of the cooling plate ; wherein the inlet of the cooling channel and the outlet of the cooling channel are arranged at a first longitudinal end of the cooling plate ; wherein the cooling channel reciprocates between the first longitudinal end and an opposite second longitudinal end of the cooling plate ; wherein each power electronics unit is mechanically attached to the cooling pipe via their cooling plates characterized in that the power electronics arrangement further comprises a support member , which is attached to the cooling pipe ; the cooling pipe is made of an extrusion profile, wherein the supply line and the return line are made of one piece; wherein the cooling plate of each power electronics unit is attached to the support member .
Injection device for automatically squeezing injection liquid from a container, with a housing , with an injection spring causing the squeezing of the injection liquid from the container , with a metering piston , which is movably mounted in the direction of a longitudinal central axis of the injection device and moves in a proximal direction when squeezing out injection liquid, with a setting device for setting the quantity of injection liquid to be squeezed out, and with an end stop which determines the end position of the metering piston , the setting device having means for adjusting the position of the end stop , characterised in that the injection device has an injection sleeve , which is non-rotatably mounted in the housing and connected via a first threaded connection to a metering member mounted rotatably and in an axially fixed manner in the housing , and in that the metering member is connected to the metering piston via a second threaded connection .
System comprising an NMR MAS probe head of an NMR spectrometer as well as a transport device for transporting an NMR sample to the NMR MAS probe head , the transport device having a transport container for the NMR MAS rotor , which is configured in such a way that the NMR MAS rotor is released by unlocking a locking apparatus and is transferred to the NMR MAS probe head and can be received by same, and wherein a detecting apparatus comprising a sensor system is provided, which makes it possible to detect whether or not the transport container is currently loaded with an NMR MAS rotor , characterized in that the NMR MAS probe head comprises a positioning apparatus , which has a geometric shape such that, in a measuring position, the transport container is arranged in a defined position with respect to the NMR MAS probe head , and in that the detecting apparatus comprises a sensor system which makes it possible to reliably detect the presence of the NMR MAS rotor in the transport container in a contact-free manner, and also at least one sensor line which can transmit a signal dependent on the current relative position of the transport container with respect to the NMR MAS probe head from the NMR MAS probe head to the transport container for detecting the current loading of the transport container .
A burner assembly for cooker appliances comprising a circumferential wall having a gas inlet in which an injector supplying combustible gas is mounted in a horizontal or acute angle position, and a lower body in which a venturi element adjacent to a mixture chamber accessed by the gas inlet and an air inlet and where the circumferential wall is at least partially delimited; a flame distributer where an air-gas mixture supplied from the lower body by being fed from the mixture chamber is transferred through a corresponding distribution channel and where the air-gas mixture exits radially outward through a plurality of slits in an outer wall thereof, wherein an internal wall surrounds the distribution channel in a way that defines a feeding chamber by taking it therebetween, in a distanced manner with the outer wall , and wherein the internal wall extends in such a way to delimit a central chamber , wherein a flat cover fits on the outer wall along an outer portion of the flat cover , in such a way to cover the feeding chamber , characterized in that central portion of the flat cover follows the outer portion of the cover and fits the inner wall so that the central portion completely closes the central chamber from the top.
A generation apparatus comprising: an acquisition means configured to acquire a plurality of pieces of image data obtained by capturing an object from different directions by a plurality of image capturing apparatuses arranged at different positions, respectively; a first determination means configured to determine reliability for each of the image capturing apparatuses based on spatial resolution of the object in the image data; and a generation means configured to generate three-dimensional shape data representing the shape of the object based on the image data and the reliability, wherein the spatial resolution is determined based on a width of a region corresponding to an element forming three-dimensional shape data in a case where the element is projected onto an image plane of the image capturing apparatus. an acquisition means configured to acquire a plurality of pieces of image data obtained by capturing an object from different directions by a plurality of image capturing apparatuses arranged at different positions, respectively; a first determination means configured to determine reliability for each of the image capturing apparatuses based on spatial resolution of the object in the image data; and a generation means configured to generate three-dimensional shape data representing the shape of the object based on the image data and the reliability, wherein the spatial resolution is determined based on a width of a region corresponding to an element forming three-dimensional shape data in a case where the element is projected onto an image plane of the image capturing apparatus.
Rotor blade of a wind turbine , the rotor blade comprising a lightning protection system with at least one lightning receptor , the lightning receptor comprising a receptor part which protrudes from the surface of the rotor blade ,wherein the section of the receptor part with the maximum lateral extension is spaced apart from the surface of the rotor blade , and characterized in that - the receptor part is at least partially covered by an electrically conductive cover , and - the cover is at least partially spaced apart from the receptor part by a non-conductive material, in particular air. - the receptor part is at least partially covered by an electrically conductive cover , and - the cover is at least partially spaced apart from the receptor part by a non-conductive material, in particular air.