mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing apparatus including a storage area divided into a first area and a second area of predetermined fixed sizes, the first area for storing data used for executing a plurality of applications and the second area used for storing application installation data and additional data, the information processing apparatus comprising: allocation means configured to allocate areas for storing installation data of each of the plurality of applications in the second area and to allocate, in the first area of the storage area , an area of a predetermined size to an application when the application is installed in the second area of the storage area; storage control means configured to determine (S502) whether an area of data storage used for executing the application is able to be reserved in the allocated area for the application within the first area , and in the case that the area of data storage is able to be reserved in the allocated area for the application (S502-YES), to store (S503, S504) the data to be used for executing the application in the allocated area for the application in the first area , and in the case that the area of data storage is not able to be reserved in the allocated area for the application (S502-NO), to determine (S505) whether the area of data storage is able to be reserved in the second area and, in the case that the area of data storage is able to be reserved in the second area, to store the data to be used for executing the application in the second area in the storage area; and notification means configured to notify (S507) in the case that the area of data storage is not able to be reserved in the allocated area for the application and in the second area . allocation means configured to allocate areas for storing installation data of each of the plurality of applications in the second area and to allocate, in the first area of the storage area , an area of a predetermined size to an application when the application is installed in the second area of the storage area; storage control means configured to determine (S502) whether an area of data storage used for executing the application is able to be reserved in the allocated area for the application within the first area , and in the case that the area of data storage is able to be reserved in the allocated area for the application (S502-YES), to store (S503, S504) the data to be used for executing the application in the allocated area for the application in the first area , and in the case that the area of data storage is not able to be reserved in the allocated area for the application (S502-NO), to determine (S505) whether the area of data storage is able to be reserved in the second area and, in the case that the area of data storage is able to be reserved in the second area, to store the data to be used for executing the application in the second area in the storage area; and notification means configured to notify (S507) in the case that the area of data storage is not able to be reserved in the allocated area for the application and in the second area .
A method performed by a first transceiver device in device-to-device, D2D, communication with at least one second transceiver device in a cellular network, wherein the method comprises the steps of: - transmitting (S10) a reference signal comprising information about an identity of the first transceiver device ; - receiving (S20) at least one feedback message from a respective second transceiver device , each feedback message comprising information about the identity of the first transceiver device , information about an identity of the respective second transceiver device that sent the feedback message, and channel characteristics of a radio channel between said first transceiver device and said respective second transceiver device , where said channel characteristics are estimated by said respective second transceiver device ; - deciding (S30) whether said respective second transceiver device should be included in a set of intended devices to which said first transceiver device will perform a transmission of at least one communication signal, said deciding (S30) being based on the at least one received feedback message; and - performing (S40) said transmission of said at least one communication signal to said set of intended devices, said transmission being adapted to the set of intended devices based on the feedback messages received from the respective second transceiver devices included in the set. - transmitting (S10) a reference signal comprising information about an identity of the first transceiver device ; - receiving (S20) at least one feedback message from a respective second transceiver device , each feedback message comprising information about the identity of the first transceiver device , information about an identity of the respective second transceiver device that sent the feedback message, and channel characteristics of a radio channel between said first transceiver device and said respective second transceiver device , where said channel characteristics are estimated by said respective second transceiver device ; - deciding (S30) whether said respective second transceiver device should be included in a set of intended devices to which said first transceiver device will perform a transmission of at least one communication signal, said deciding (S30) being based on the at least one received feedback message; and - performing (S40) said transmission of said at least one communication signal to said set of intended devices, said transmission being adapted to the set of intended devices based on the feedback messages received from the respective second transceiver devices included in the set.
Device for evaporating liquid spray and subsequent mixing into exhaust gases from a combustion engine comprising a housing that defines a longitudinal axis, and which comprises: a) an inlet of the exhaust gases, b) an outlet of the exhaust gases, c) a flow guiding device located within the housing, d) a flow deflecting device for deflecting a gas flow coming from the flow guiding device , e) a redirecting zone for redirecting the flow coming from the deflecting device to the outlet, wherein the flow guiding device further comprises a bypass opening that establish a fluid communication between a zone upstream the flow guiding device and the redirecting zone , characterised in that the device further comprises f) a swirling baffle located at the redirecting zone and fixed to the flow deflecting device , said swirling baffle further comprising openings and/or swirling vanes . a) an inlet of the exhaust gases, b) an outlet of the exhaust gases, c) a flow guiding device located within the housing, d) a flow deflecting device for deflecting a gas flow coming from the flow guiding device , e) a redirecting zone for redirecting the flow coming from the deflecting device to the outlet, wherein the flow guiding device further comprises a bypass opening that establish a fluid communication between a zone upstream the flow guiding device and the redirecting zone , characterised in that the device further comprises f) a swirling baffle located at the redirecting zone and fixed to the flow deflecting device , said swirling baffle further comprising openings and/or swirling vanes .
A build material supply for an additive manufacturing machine, comprising a container to de-agglomerate a supply of powdered build material ; where the container to de-agglomerate a supply of powdered build material comprises a rotatable container and the supply includes a controller to rotate the container to cause a cataracting flow of powdered build material inside the container.
Method for operating a motor vehicle, having a drive assembly , a transmission and a drive output , wherein the transmission is configured as an automatic transmission or automated manual transmission and is connected between the drive assembly and the drive output , wherein, in a manner dependent on at least one operating condition of the motor vehicle, a coasting mode thereof is activated, and subsequently, in a manner dependent on at least one operating condition of the motor vehicle, said coasting mode is deactivated again, wherein, when the coasting mode is active, a gear ratio in the transmission is updated whilst the coasting mode is maintained, wherein the gear ratio updating in the transmission is performed in a manner dependent on a rotational speed of the drive assembly and in a manner dependent on the synchronous rotational speed of a respectively present coasting gear ratio of the transmission and also in a manner dependent on the synchronous rotational speed of a next higher coasting gear ratio of the transmission in relation to the respectively present coasting gear ratio of the transmission , characterized in that the gear ratio updating in the transmission is furthermore performed in a manner dependent on a run-down gradient of the rotational speed of the drive assembly , wherein, in a manner dependent on the run-down gradient of the rotational speed of the drive assembly , an actual time is determined at which the rotational speed of the drive assembly undershoots or reaches the synchronous rotational speed of the next higher coasting gear ratio of the transmission in relation to the respective present coasting gear ratio of the transmission, and wherein a shift is performed from the present coasting gear ratio into the next higher coasting gear ratio of the transmission if said actual time becomes shorter than a specified applicable setpoint time.
A method for granulating a glass batch using a silicate-phosphate binder, characterised in that the binder is formed in situ in a mixer from a first binder precursor and a second binder precursor during mixing of the glass batch components with both binder precursors, whereby the first binder precursor is water glass containing hydrated sodium silicates or hydrated potassium silicates or a mixture of hydrated sodium and potassium silicates and the second binder precursor is an aqueous solution of Ca(H 2 PO 4 ) 2 or a mixture of Ca(H 2 PO 4 ) 2 and Mg(H 2 PO 4 ) 2 . .
Method for determining a state of ageing of a battery , in particular a lithium-ion battery, comprising the steps: (A) detecting at least one section of a characteristic curve of the battery at a first point in time (t1), (B) establishing and/or determining at least one significant portion or point in the section of the characteristic curve of the battery , (C) detecting the corresponding significant portion or point in the section of the characteristic curve of the battery at a second point in time (t2) after the first point in time (t1), (D) determining a measure of the change of the significant portion or point in the section of the characteristic curve of the battery at the first and second points in time (t1, t2), wherein the measure of the change is representative of an extent of the change in the significant portion or point in the section of the characteristic curve of the battery at the first and second points in time (t1, t2), and (E) generating a measure of the ageing that is representative of a state of ageing of the battery on the basis of the measure of the change. (A) detecting at least one section of a characteristic curve of the battery at a first point in time (t1), (B) establishing and/or determining at least one significant portion or point in the section of the characteristic curve of the battery , (C) detecting the corresponding significant portion or point in the section of the characteristic curve of the battery at a second point in time (t2) after the first point in time (t1), (D) determining a measure of the change of the significant portion or point in the section of the characteristic curve of the battery at the first and second points in time (t1, t2), wherein the measure of the change is representative of an extent of the change in the significant portion or point in the section of the characteristic curve of the battery at the first and second points in time (t1, t2), and (E) generating a measure of the ageing that is representative of a state of ageing of the battery on the basis of the measure of the change.
Pellets of a flame retardant long glass fibre reinforced polypropylene composition having a core containing glass fibres and an impregnating agent, wherein the impregnating agent is present in an amount from 0.5 to 7 wt.% based on the total weight of the flame retardant long glass fibre reinforced polypropylene composition, and a sheath of a polypropylene compound comprising a flame retardant composition and surrounding said core, wherein the flame retardant composition comprises a mixture of (i) an organic phosphate compound that includes piperazine pyrophosphate, piperazine polyphosphate and combinations thereof; (ii) an organic phosphoric acid compound that includes melamine pyrophosphate, melamine polyphosphates, melamine phosphate and combinations thereof; and (iii) zinc oxide, said pellets having a UL94 - V0 rating at 1.6mm thickness, wherein the amount of flame retardant composition is selected according to the following formula FR ≥ 0.5 × GF + 5 wherein, GF = amount of glass fibre in wt.% FR = amount of flame retardant composition in wt.% provided the amount of glass fibres is at least 15 wt.%, preferably in the range of 20 - 40 wt.%. (i) an organic phosphate compound that includes piperazine pyrophosphate, piperazine polyphosphate and combinations thereof; (ii) an organic phosphoric acid compound that includes melamine pyrophosphate, melamine polyphosphates, melamine phosphate and combinations thereof; and (iii) zinc oxide, said pellets having a UL94 - V0 rating at 1.6mm thickness, wherein the amount of flame retardant composition is selected according to the following formula FR ≥ 0.5 × GF + 5 wherein, GF = amount of glass fibre in wt.% FR = amount of flame retardant composition in wt.% provided the amount of glass fibres is at least 15 wt.%, preferably in the range of 20 - 40 wt.%. GF = amount of glass fibre in wt.% FR = amount of flame retardant composition in wt.% provided the amount of glass fibres is at least 15 wt.%, preferably in the range of 20 - 40 wt.%.
Rail vehicle comprising at least one high-voltage component and at least one insulating element , wherein the at least one high-voltage component is arranged in a housing and the at least one insulating element is arranged between the high-voltage component and the floor surface of the housing, or wherein the at least one high-voltage component is arranged on the vehicle roof and the at least one insulating element is arranged between the high-voltage component and the roof surface of the vehicle roof, characterized in that the insulating element is a solid insulating element having semiconductor properties, the insulating element abutting the floor surface or the roof surface or an electrically conductive region of the high-voltage component.
An additive fabrication apparatus comprising: a plate for holding an object ; a foil ; an applicator arranged for applying a layer of build material to the foil; a source of radiation capable of delivering radiation to a build area , whereby radiation delivered to the layer of build material positioned in the build area forms a newly hardened layer of the object ; and a separator arranged to separate the foil and the newly hardened layer comprising a foil orientation adjustment device arranged to adjust the orientation between the foil and the plate ; wherein the foil orientation adjustment device is engaged such that the foil is positioned substantially parallel to the plate at a first position in the build area and positioned at an out-of-plane orientation from the plate at a second position in the build area , and wherein the foil orientation adjustment device comprises an angle adjustment device that is adjustable to effectuate a change in the angle between the foil and the plate . a plate for holding an object ; a foil ; an applicator arranged for applying a layer of build material to the foil; a source of radiation capable of delivering radiation to a build area , whereby radiation delivered to the layer of build material positioned in the build area forms a newly hardened layer of the object ; and a separator arranged to separate the foil and the newly hardened layer comprising a foil orientation adjustment device arranged to adjust the orientation between the foil and the plate ;
An array type wavelength converting laser device comprising: at least one laser element with light emitting points, the laser element being configured to output fundamental waves in a one-dimensional array; a wavelength converting element configured to carry out wavelength conversion of the incident fundamental waves, and to output wavelength converted light rays; and an output mirror configured to set up a cavity of the fundamental waves between the at least one laser element and the output mirror, and to reflect the fundamental waves, and to transmit the wavelength converted light rays resulting from the wavelength conversion by the wavelength converting element , wherein the wavelength converting element is disposed between the laser element and the output mirror ; characterized in that a distance between a position of a waist of the fundamental waves output from the laser element and the output mirror is set in accordance with a Talbot condition under which phase synchronization is achieved between the adjacent light emitting points with each other, where the waist is a position where the wavefronts of individual laser light rays of the at least one laser element become a plane wave and is located inside the cavity. at least one laser element with light emitting points, the laser element being configured to output fundamental waves in a one-dimensional array; a wavelength converting element configured to carry out wavelength conversion of the incident fundamental waves, and to output wavelength converted light rays; and an output mirror configured to set up a cavity of the fundamental waves between the at least one laser element and the output mirror, and to reflect the fundamental waves, and to transmit the wavelength converted light rays resulting from the wavelength conversion by the wavelength converting element , wherein the wavelength converting element is disposed between the laser element and the output mirror ; characterized in that
A method of preparing a biological sample for microanalysis, the method comprising: (i) contacting the biological sample with a freeze substitution solution comprising a lithium salt under conditions effective to permit permeation of the lithium salt into the biological sample; (ii) contacting the biological sample with a first polymerizable resin under conditions effective to permit permeation of the polymerizable resin into the biological sample; (iii) disposing the biological sample in a volume of a second polymerizable resin; and (iv) heating the so-prepared biological sample to a temperature effective to cure the first polymerizable resin and the second polymerizable resin, thereby forming a 3-dimensional conductive sample block. (i) contacting the biological sample with a freeze substitution solution comprising a lithium salt under conditions effective to permit permeation of the lithium salt into the biological sample; (ii) contacting the biological sample with a first polymerizable resin under conditions effective to permit permeation of the polymerizable resin into the biological sample; (iii) disposing the biological sample in a volume of a second polymerizable resin; and (iv) heating the so-prepared biological sample to a temperature effective to cure the first polymerizable resin and the second polymerizable resin, thereby forming a 3-dimensional conductive sample block.
An apparatus comprising: (a) a body ; (b) a shaft assembly , wherein the shaft assembly extends distally from the body, wherein the shaft assembly comprises an acoustic waveguide , wherein the waveguide is configured to acoustically couple with an ultrasonic transducer ; (c) an end effector , wherein the end effector comprises: (i) an ultrasonic blade in acoustic communication with the waveguide, configured to cut through and seal tissue, (ii) a clamp arm , wherein the clamp arm is operable to compress tissue against the ultrasonic blade, (iii) an electrode, wherein the electrode is operable to apply radiofrequency (RF) electrosurgical energy to tissue, and (iv) a sensor , wherein the sensor is operable to sense a condition of tissue contacted by the end effector, wherein the condition indicates that the tissue has reached a sealing temperature; and (d) a control module , wherein the control module is operable to control delivery of ultrasonic power and RF electrosurgical energy through the end effector based on data from the sensor, wherein the control module receives data from the sensor, wherein the control module is further configured to maintain the tissue temperature at substantially the sealing temperature for a predetermined period of time. (a) a body ; (b) a shaft assembly , wherein the shaft assembly extends distally from the body, wherein the shaft assembly comprises an acoustic waveguide , wherein the waveguide is configured to acoustically couple with an ultrasonic transducer ; (c) an end effector , wherein the end effector comprises: (i) an ultrasonic blade in acoustic communication with the waveguide, configured to cut through and seal tissue, (ii) a clamp arm , wherein the clamp arm is operable to compress tissue against the ultrasonic blade, (iii) an electrode, wherein the electrode is operable to apply radiofrequency (RF) electrosurgical energy to tissue, and (iv) a sensor , wherein the sensor is operable to sense a condition of tissue contacted by the end effector, wherein the condition indicates that the tissue has reached a sealing temperature; and (i) an ultrasonic blade in acoustic communication with the waveguide, configured to cut through and seal tissue, (ii) a clamp arm , wherein the clamp arm is operable to compress tissue against the ultrasonic blade, (iii) an electrode, wherein the electrode is operable to apply radiofrequency (RF) electrosurgical energy to tissue, and (iv) a sensor , wherein the sensor is operable to sense a condition of tissue contacted by the end effector, wherein the condition indicates that the tissue has reached a sealing temperature; and (d) a control module , wherein the control module is operable to control delivery of ultrasonic power and RF electrosurgical energy through the end effector based on data from the sensor, wherein the control module receives data from the sensor, wherein the control module is further configured to maintain the tissue temperature at substantially the sealing temperature for a predetermined period of time.
A method for manufacturing a fiber-reinforced plastic molded body, comprising: accommodating a particle group including rigid particles which have a bending elastic modulus of 50 GPa or more, and a core block which has a larger outer contour volume than the rigid particles and moves with the rigid particles in a flexible bag that can be expanded; disposing the flexible bag as a core inside a prepreg containing a resin and fibers, disposing the prepreg having the core therein inside a molding die , followed by compression molding, and pressing a part of an outer surface of the core at the time of the compression molding. accommodating a particle group including rigid particles which have a bending elastic modulus of 50 GPa or more, and a core block which has a larger outer contour volume than the rigid particles and moves with the rigid particles in a flexible bag that can be expanded; disposing the flexible bag as a core inside a prepreg containing a resin and fibers, disposing the prepreg having the core therein inside a molding die , followed by compression molding, and pressing a part of an outer surface of the core at the time of the compression molding.