mhurhangee/patent-ind-claim-en huggingface dataset:
A method for configuring mobility measurements, the method being performed by a network node , the method comprising: obtaining (S102) parameters to be used for a mobility measurement procedure, wherein the parameters are valid for at least two consecutive measurement sessions of the mobility measurement procedure and wherein a measurement session is a single measurement on a single mobility reference signal; providing (S104) a measurement order to a wireless device regarding the mobility measurement procedure, wherein the measurement order comprises at least one of the parameters; and initiating transmission (S106) of mobility reference signals to the wireless device according to the parameters such that the mobility reference signals are transmitted during said at least two consecutive measurement sessions. obtaining (S102) parameters to be used for a mobility measurement procedure, wherein the parameters are valid for at least two consecutive measurement sessions of the mobility measurement procedure and wherein a measurement session is a single measurement on a single mobility reference signal; providing (S104) a measurement order to a wireless device regarding the mobility measurement procedure, wherein the measurement order comprises at least one of the parameters; and initiating transmission (S106) of mobility reference signals to the wireless device according to the parameters such that the mobility reference signals are transmitted during said at least two consecutive measurement sessions.
A truck mounted concrete pump having at least one telescopic pivot leg and at least one frame section , wherein the telescopic pivot leg comprises at least one pivot section and at least one telescopic section , wherin the pivot section is pivotably connected to the frame section in an articulated manner, wherein at least one locking means and at least one counter-locking means are provided by means of which the telescopic section is lockable relative to the pivot section in an inwardly pivoted and inwardly telescoped state of the pivot section , and wherein the locking means and the counter-locking means are in engagement with one another in an inwarldy pivoted and inwardly telescoped state of the telescopic pivot leg , characterized in that the locking means are configured as a projection at the frame section that extends away from the frame section in the outwarldy pivoting direction of the telescopic pivot leg , with the counter-locking means being configured as a passage and/or as a cutout and/or as a projection at the telescopic pivot leg ; or in that the locking means are configured as a projection at the telescopic pivot leg that extends away from the telescopic pivot leg in its inwardly pivoting direction, with the counter-locking means being conifgured as a passage and/or cutout and/or projection at the frame section .
A power conversion device , comprising: a metal board , comprising a circuit part , an insulating layer , and a metal part ; a semiconductor element (SW) mounted on the circuit part of the metal board and comprising a Drain terminal, a Source terminal and a Gate terminal; an insulator ; and a radiator (HS), the power conversion device being characterized in that the insulating layer is interposed between the circuit part and the metal part , the insulator is interposed between the radiator (HS) and the metal part of the metal board , and in that the metal part of the metal board is connected to a stable potential of the semiconductor element (SW), the stable potential being the potential of the Source terminal. a metal board , comprising a circuit part , an insulating layer , and a metal part ; a semiconductor element (SW) mounted on the circuit part of the metal board and comprising a Drain terminal, a Source terminal and a Gate terminal; an insulator ; and a radiator (HS), the power conversion device being characterized in that the insulating layer is interposed between the circuit part and the metal part , the insulator is interposed between the radiator (HS) and the metal part of the metal board , and in that the metal part of the metal board is connected to a stable potential of the semiconductor element (SW), the stable potential being the potential of the Source terminal.
A lighting device comprising: a light generating element, and a micro-lens array comprising a focal plane (F p ), wherein the light generating element comprises a first light generating component and a second light generating component , wherein the first light generating component comprises a light emitting surface adapted for providing a diffuse light output component, wherein the second light generating component comprises at least one array of light sources adapted for providing a directional light output component, wherein the light generating element is arranged to emit a light output towards the micro-lens array , the light output being formed by a superposition of the diffuse light output component and the directional light output component, and wherein the array of the light sources is located in the focal plane (F p ) of the micro-lens array . a light generating element, and a micro-lens array comprising a focal plane (F p ), wherein the light generating element comprises a first light generating component and a second light generating component , wherein the first light generating component comprises a light emitting surface adapted for providing a diffuse light output component, wherein the second light generating component comprises at least one array of light sources adapted for providing a directional light output component, wherein the light generating element is arranged to emit a light output towards the micro-lens array , the light output being formed by a superposition of the diffuse light output component and the directional light output component, and wherein the array of the light sources is located in the focal plane (F p ) of the micro-lens array .
A gas sensor system comprising: a gas sensor comprising: first and second electrodes formed from electrically conductive material, the electrodes spaced apart from one another and positioned on a substrate; and an active sensing layer , the active sensing layer positioned on the substrate and in direct contact with at least a portion of each electrode , wherein the active sensing layer experiences a change in an electrical characteristic in response to a change in a characteristic of a constituent gas in proximity to the active sensing layer , a 25 V to 500 V voltage source ; and a pulse width modulator ; wherein the electrodes are connected to the voltage source and the pulse width modulator such that the active sensing layer receives energy directly from the electrodes to set a temperature of the active sensing layer to a specific value. a gas sensor comprising: first and second electrodes formed from electrically conductive material, the electrodes spaced apart from one another and positioned on a substrate; and an active sensing layer , the active sensing layer positioned on the substrate and in direct contact with at least a portion of each electrode , wherein the active sensing layer experiences a change in an electrical characteristic in response to a change in a characteristic of a constituent gas in proximity to the active sensing layer , first and second electrodes formed from electrically conductive material, the electrodes spaced apart from one another and positioned on a substrate; and an active sensing layer , the active sensing layer positioned on the substrate and in direct contact with at least a portion of each electrode , wherein the active sensing layer experiences a change in an electrical characteristic in response to a change in a characteristic of a constituent gas in proximity to the active sensing layer , a 25 V to 500 V voltage source ; and a pulse width modulator ; wherein the electrodes are connected to the voltage source and the pulse width modulator such that the active sensing layer receives energy directly from the electrodes to set a temperature of the active sensing layer to a specific value.
A method performed by a coordinating entity in a disaggregated data center architecture wherein computing resources are separated in discrete resource pools and associated together to represent a functional server, the method comprising: - obtaining a setup of processor cores that are coupled logically as the functional server; - determining an index indicating an identity of a cache coherency domain based on the obtained setup of processor cores, wherein the index is a virtual cache coherency index, VCCI, comprising a first part that identifies the processor cores that are part of the cache coherency domain across the data center architecture, a second part that identifies participating processor cores of a generating processor socket; and/or a third part that identifies whether a message needs to be sent out of present processor socket; and - configuring one or more communicating entities associated with the obtained setup of processor cores, to use the determined index when handling updated cache related data. - obtaining a setup of processor cores that are coupled logically as the functional server; - determining an index indicating an identity of a cache coherency domain based on the obtained setup of processor cores, wherein the index is a virtual cache coherency index, VCCI, comprising a first part that identifies the processor cores that are part of the cache coherency domain across the data center architecture, a second part that identifies participating processor cores of a generating processor socket; and/or a third part that identifies whether a message needs to be sent out of present processor socket; and - configuring one or more communicating entities associated with the obtained setup of processor cores, to use the determined index when handling updated cache related data.
A slip-resistant footwear outsole comprising: an outsole material having a tread pattern formed by an arrangement of tread elements, wherein the tread pattern includes repeating tread patterns of the tread elements, wherein each of the repeating tread patterns include six square tread elements and two L-shaped tread elements , the tread elements within the repeating tread patterns being separated from each other by one or more narrow dispersion channels having a width, wherein each of the one or more narrow dispersion channels is a groove that is formed in the outsole material, wherein each of the one or more narrow dispersion channel protrudes inward from a walk surface , and the repeating tread patterns being separated from each other by one or more wide dispersion channels having angled side walls having an angle α of about 25 degrees, and having a wide dispersion channel opening width of about 4 mm and having a wide dispersion channel ceiling width of about 1.2 mm, or having a wide dispersion channel opening width of about 5.5 mm and having a wide dispersion channel ceiling width of about 2.7 mm, or having a wide dispersion channel opening width of about 6.0 mm and having a wide dispersion channel ceiling width of about 3.2 mm, and wherein each of the one or more wide dispersion channels has a depth of about 3 mm. an outsole material having a tread pattern formed by an arrangement of tread elements, wherein the tread pattern includes repeating tread patterns of the tread elements, wherein each of the repeating tread patterns include six square tread elements and two L-shaped tread elements , the tread elements within the repeating tread patterns being separated from each other by one or more narrow dispersion channels having a width, wherein each of the one or more narrow dispersion channels is a groove that is formed in the outsole material, wherein each of the one or more narrow dispersion channel protrudes inward from a walk surface , and the repeating tread patterns being separated from each other by one or more wide dispersion channels having angled side walls having an angle α of about 25 degrees, and having a wide dispersion channel opening width of about 4 mm and having a wide dispersion channel ceiling width of about 1.2 mm, or having a wide dispersion channel opening width of about 5.5 mm and having a wide dispersion channel ceiling width of about 2.7 mm, or having a wide dispersion channel opening width of about 6.0 mm and having a wide dispersion channel ceiling width of about 3.2 mm, and having a wide dispersion channel opening width of about 4 mm and having a wide dispersion channel ceiling width of about 1.2 mm, or having a wide dispersion channel opening width of about 5.5 mm and having a wide dispersion channel ceiling width of about 2.7 mm, or having a wide dispersion channel opening width of about 6.0 mm and having a wide dispersion channel ceiling width of about 3.2 mm, and wherein each of the one or more wide dispersion channels has a depth of about 3 mm.
A stored image reclassification system used for a system configured to image a component by a camera, the component being picked up by a suction nozzle of a component mounting machine , recognize the component by processing the captured image using an image recognition system , determine the image to be normal or abnormal based on the recognition result; classify the image as a normal image or an abnormal image and store the image in a storage device , and inspect a component mounting board unloaded from the component mounting machine with an inspection device , the stored image reclassification system comprising: a reclassification section configured to reclassify the normal image, based on the inspection result of the inspection device , as an image whose determination as a normal image is suspect or as an image whose determination as a normal image is not suspect, and store the normal image in the storage device . image a component by a camera, the component being picked up by a suction nozzle of a component mounting machine , recognize the component by processing the captured image using an image recognition system , determine the image to be normal or abnormal based on the recognition result; classify the image as a normal image or an abnormal image and store the image in a storage device , and inspect a component mounting board unloaded from the component mounting machine with an inspection device , the stored image reclassification system comprising: a reclassification section configured to reclassify the normal image, based on the inspection result of the inspection device , as an image whose determination as a normal image is suspect or as an image whose determination as a normal image is not suspect, and store the normal image in the storage device .
Material for hot-moulding objects, composed of a base material and an additive material, wherein the base material is composed by weight of 20-50% of expanded particles and 80-50% of unexpanded particles, the particles being made of plastic material, of closed shape, hollow and filled with gas; and the additive material is low-melting PVC, characterized in that the additive material is in a percentage of the base material ranging from 10% to 100%, by weight.
A turbopomp for a spacecraft comprising: - a fixed assembly defining a stator of the turbopump , and - a movable assembly defining a rotor of the turbopump, comprising a driving shaft , - a magnetic torque generator configured to selectively apply a torque on the driving shaft , - a driving member adapted to drive the driving shaft the turbopump having two disjoint operating steady states (R2, R3), characterized in that it further comprises a control unit , configured to drive the magnetic torque generator in order to selectively apply an engine or resisting torque onto the driving shaft according to an applied command, so as to define an intermediate steady state (R4) between said two disjoint operating steady states (R2, R3). - a fixed assembly defining a stator of the turbopump , and - a movable assembly defining a rotor of the turbopump, comprising a driving shaft , - a magnetic torque generator configured to selectively apply a torque on the driving shaft , - a driving member adapted to drive the driving shaft
Process for recovering an isoprenoid compound produced by fermentation from a fermentation medium comprising: (a) demulsifying the fermentation medium or a fraction thereof in presence of a salt and a surfactant by addition of the salt and surfactant, the salt being at a concentration of 0.01 mol/L or more, thereby generating a stream having an organic phase containing the isoprenoid compound and a phase heavier than the organic phase, and (b) separating the stream obtained in step (a) into the organic phase containing the isoprenoid compound, the phase heavier than the organic phase, and optionally a solid phase containing host cell debris and cells wherein, no acid or base is added to the fermentation medium or the fraction thereof prior or during the demulsifying step (a). (a) demulsifying the fermentation medium or a fraction thereof in presence of a salt and a surfactant by addition of the salt and surfactant, the salt being at a concentration of 0.01 mol/L or more, thereby generating a stream having an organic phase containing the isoprenoid compound and a phase heavier than the organic phase, and (b) separating the stream obtained in step (a) into the organic phase containing the isoprenoid compound, the phase heavier than the organic phase, and optionally a solid phase containing host cell debris and cells
A virtual channel setting method for a data flow, comprising: receiving , by a receiving device, a first data packet of a first data flow from a sending device, wherein the first data packet comprises an identifier of a first virtual channel corresponding to the first data flow; selecting , by the receiving device, a second virtual channel for the first data flow from a first virtual channel group corresponding to the first data flow, wherein the second virtual channel is different from the first virtual channel; and sending , by the receiving device, an acknowledgement packet to the sending device, wherein the acknowledgement packet comprises an identifier of the second virtual channel, and the second virtual channel is used by the sending device to update a virtual channel corresponding to the first data flow. receiving , by a receiving device, a first data packet of a first data flow from a sending device, wherein the first data packet comprises an identifier of a first virtual channel corresponding to the first data flow; selecting , by the receiving device, a second virtual channel for the first data flow from a first virtual channel group corresponding to the first data flow, wherein the second virtual channel is different from the first virtual channel; and sending , by the receiving device, an acknowledgement packet to the sending device, wherein the acknowledgement packet comprises an identifier of the second virtual channel, and the second virtual channel is used by the sending device to update a virtual channel corresponding to the first data flow.
A ruggedized mobile mount for simultaneous charging of a handheld radio and a spare rechargeable battery , comprising: means for receiving power from a vehicle on which the mount is removably attached; and comprising: means for first charging a first rechargeable battery mounted on the handheld radio , the first charging means configured to receive and electrically connect to the first rechargeable battery, wherein the first charging means includes means for applying pressure to a plurality of electrically conductive pads arranged on a first portion of the handheld radio and means for securing arranged below the pressure applying means and configured to provide consistent and secure positioning that avoids movement of the handheld radio , the securing means including a bottom surface and a rear surface configured to hold the handheld radio upright and including a conductive contact configured to charge the first rechargeable battery; and means for second charging a second rechargeable battery mounted on the handheld radio , the second charging means configured to receive and electrically connect to the second rechargeable battery. means for first charging a first rechargeable battery mounted on the handheld radio , the first charging means configured to receive and electrically connect to the first rechargeable battery, wherein the first charging means includes means for applying pressure to a plurality of electrically conductive pads arranged on a first portion of the handheld radio and means for securing arranged below the pressure applying means and configured to provide consistent and secure positioning that avoids movement of the handheld radio , the securing means including a bottom surface and a rear surface configured to hold the handheld radio upright and including a conductive contact configured to charge the first rechargeable battery; and means for second charging a second rechargeable battery mounted on the handheld radio , the second charging means configured to receive and electrically connect to the second rechargeable battery.
A method for transmitting signals at a User Equipment, UE, , in a multi-antenna wireless communication system, the method comprising: receiving a first uplink grant from a Base Station, BS; transmitting transport blocks, TBs, and demodulation Reference Signals, DMRSs, for the TBs via a plurality of layers for the multi-antenna wireless communication system based on the first uplink grant; receiving ACKnowledgment/Negative ACKnowledgment, ACK/NACK, information for the transmitted TBs; and retransmitting at least one TB and the DMRS for the at least one TB via at least one layer according to the ACK/NACK information, wherein a second uplink grant for retransmission is not received from the BS, wherein, if the number of the at least one TB is less than the number of the TBs initially transmitted, cyclic shift values and Orthogonal Cover Codes, OCCs, applied to the DMRSs allocated to each layer for retransmission for the at least one TB are configured based on a cyclic shift field included in the first uplink grant, wherein, if the number of the at least one TB is equal to the number of TBs, the cyclic shift values and the OCCs applied to the DMRSs for the at least one TB are the same as those of the DMRS for the TBs allocated to the layers for the initial transmission. receiving a first uplink grant from a Base Station, BS; transmitting transport blocks, TBs, and demodulation Reference Signals, DMRSs, for the TBs via a plurality of layers for the multi-antenna wireless communication system based on the first uplink grant; receiving ACKnowledgment/Negative ACKnowledgment, ACK/NACK, information for the transmitted TBs; and retransmitting at least one TB and the DMRS for the at least one TB via at least one layer according to the ACK/NACK information, wherein a second uplink grant for retransmission is not received from the BS, wherein, if the number of the at least one TB is less than the number of the TBs initially transmitted, cyclic shift values and Orthogonal Cover Codes, OCCs, applied to the DMRSs allocated to each layer for retransmission for the at least one TB are configured based on a cyclic shift field included in the first uplink grant, wherein, if the number of the at least one TB is equal to the number of TBs, the cyclic shift values and the OCCs applied to the DMRSs for the at least one TB are the same as those of the DMRS for the TBs allocated to the layers for the initial transmission.