mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining movements of an object to be imaged in a medical imaging method which includes at least one magnetic resonance imaging, the method comprising the following steps: - determining first coefficients of a mathematical transformation based on first navigator data of the object recorded by a magnetic resonance scanner, wherein the first navigator data are recorded by a magnetic resonance tomograph , the first navigator data being data of a first spherical Lissajous navigator in the k-space with k r <0.2/cm, preferably k r <0.15/cm, and particularly preferred k r <0.1/cm, wherein k r represents the absolute value of the wave vector k, - determining second coefficients of a mathematical transformation based on second navigator data of the object recorded by the magnetic resonance tomograph , the second navigator being data of a second spherical Lissajous navigator in the k-space with k r <0.2/cm, preferably k r <0.15/cm, and particularly preferred k r <0.1/cm, wherein k r represents the absolute value of the wave vector k, wherein the first coefficients are first coefficients of spherical harmonics, and the second coefficients are second coefficients of spherical harmonics, wherein the first navigator data comprise first signal amplitudes, and the second navigator data comprise second signal amplitudes, wherein the first signal amplitudes and the second signal amplitudes are each interpolated to a regular grid or to any points, such as in particular randomly distributed, on a spherical surface, - calculating a rotation of the object using a mathematical optimization based on the first coefficients and the second coefficients. - determining first coefficients of a mathematical transformation based on first navigator data of the object recorded by a magnetic resonance scanner, wherein the first navigator data are recorded by a magnetic resonance tomograph , the first navigator data being data of a first spherical Lissajous navigator in the k-space with k r <0.2/cm, preferably k r <0.15/cm, and particularly preferred k r <0.1/cm, wherein k r represents the absolute value of the wave vector k, - determining second coefficients of a mathematical transformation based on second navigator data of the object recorded by the magnetic resonance tomograph , the second navigator being data of a second spherical Lissajous navigator in the k-space with k r <0.2/cm, preferably k r <0.15/cm, and particularly preferred k r <0.1/cm, wherein k r represents the absolute value of the wave vector k, wherein the first coefficients are first coefficients of spherical harmonics, and the second coefficients are second coefficients of spherical harmonics, wherein the first navigator data comprise first signal amplitudes, and the second navigator data comprise second signal amplitudes, wherein the first signal amplitudes and the second signal amplitudes are each interpolated to a regular grid or to any points, such as in particular randomly distributed, on a spherical surface, - calculating a rotation of the object using a mathematical optimization based on the first coefficients and the second coefficients.
Optoelectronic safety device for monitoring a machine movement, comprising a detection device , with at least one transmitter unit (24a,b) for transmitting an optical signal (26a,b), and at least one receiver unit (28a,b) for receiving the optical signal (26a,b), and a control device with an evaluation unit for evaluating the signal (26a,b) received at the receiver unit, the control device releasing the machine movement when the intensity of the received signal (52a,b) is within an allowed intensity range (Ie) and outputting a triggering pulse to stop the machine movement when the intensity of the received signal (52a,b) is outside an allowed intensity range (Ie), characterised in that the optical signal (26a,b) comprises a sequence (34a,b) of a plurality of signal pulses (36a-c,37a-c), the signal pulses (36a-c,37a-c) having different pulse intensities (49a-c,50a-c) from one another, the control device comprises a pulse selection index (42a,b) by means of which a signal pulse (36a-c,37a-c) of the received optical signal (26a,b) to be evaluated in the evaluation unit is predetermined, and the control device comprises a pulse selection unit which is suitable for changing the pulse selection index (42a,b) if the pulse intensity (52a,b) of the signal pulse (36a c,37a c) predetermined via the pulse selection index (42a,b) is outside an optimal intensity range (Iopt). a detection device , with at least one transmitter unit (24a,b) for transmitting an optical signal (26a,b), and at least one receiver unit (28a,b) for receiving the optical signal (26a,b), and a control device with an evaluation unit for evaluating the signal (26a,b) received at the receiver unit, the control device releasing the machine movement when the intensity of the received signal (52a,b) is within an allowed intensity range (Ie) and outputting a triggering pulse to stop the machine movement when the intensity of the received signal (52a,b) is outside an allowed intensity range (Ie), characterised in that the optical signal (26a,b) comprises a sequence (34a,b) of a plurality of signal pulses (36a-c,37a-c), the signal pulses (36a-c,37a-c) having different pulse intensities (49a-c,50a-c) from one another, the control device comprises a pulse selection index (42a,b) by means of which a signal pulse (36a-c,37a-c) of the received optical signal (26a,b) to be evaluated in the evaluation unit is predetermined, and the control device comprises a pulse selection unit which is suitable for changing the pulse selection index (42a,b) if the pulse intensity (52a,b) of the signal pulse (36a c,37a c) predetermined via the pulse selection index (42a,b) is outside an optimal intensity range (Iopt).
A method, performed in a Network Functions Virtualisation Management and Orchestration system, NFV-MANO, for managing resources in a Network Function Virtualisation Infrastructure, NFVI, to provide network services, the NFV-MANO having elements (NFVO, VNFM) for orchestrating and managing virtual resources to provide a network service and having an allocation element (VIM) for managing an allocation of physical resources for the virtual resources, the method having steps, performed by a Network Functions Virtualisation Orchestrator (NFVO), of: obtaining information about which of the virtual resources could be affected by a planned adjustment of the allocation, determining performance degradation of a network service caused by the planned adjustment, based on the information about which of the virtual resources could be affected, and sending to the allocation element (VIM), an indication based on the determined performance degradation of the network service, wherein the indication comprises a request to proceed with the planned allocation adjustment after a requested delay. obtaining information about which of the virtual resources could be affected by a planned adjustment of the allocation, determining performance degradation of a network service caused by the planned adjustment, based on the information about which of the virtual resources could be affected, and sending to the allocation element (VIM), an indication based on the determined performance degradation of the network service, wherein the indication comprises a request to proceed with the planned allocation adjustment after a requested delay.
An elastic cushion , it comprises: at least one elastic module , wherein the at least one elastic module comprises multiple rows of springs , fixing seats , and one or more flexible bands , two adjacent rows of the multiple rows of the springs are staggered, waists of the springs comprise the fixing seats , at least two opposing sides of the fixing seats comprise perforations , the perforations in the fixing seats of the two adjacent rows of the springs define a substantially continuous straight line , the one or more flexible bands pass through the perforations in the substantially continuous straight line , ends of the one or more flexible bands comprise stoppers or buckles, two ends of the one or more flexible bands are fixed to the fixing seats of two springs at two ends of the two adjacent rows of the springs , and the two adjacent rows of the springs are connected in series by the one or more flexible bands . the at least one elastic module comprises multiple rows of springs , fixing seats , and one or more flexible bands , two adjacent rows of the multiple rows of the springs are staggered, waists of the springs comprise the fixing seats , at least two opposing sides of the fixing seats comprise perforations , the perforations in the fixing seats of the two adjacent rows of the springs define a substantially continuous straight line , the one or more flexible bands pass through the perforations in the substantially continuous straight line , ends of the one or more flexible bands comprise stoppers or buckles, two ends of the one or more flexible bands are fixed to the fixing seats of two springs at two ends of the two adjacent rows of the springs , and the two adjacent rows of the springs are connected in series by the one or more flexible bands .
A flexible thermal blanket assembly (204; 300; 400), comprising: a stack-up of material layers that are configured to wrap around a component and that include an insulation layer ; a plurality of snaps configured to be mechanically fastened through the material layers; and a cap configured as a baffle to prevent thermal energy located at an exterior of the thermal blanket assembly from entering an interior of the thermal blanket assembly when the thermal blanket assembly is assembled; characterised in that : the material layers include: a silicone-impregnated aluminized fiberglass layer ; and a ceramic layer . a stack-up of material layers that are configured to wrap around a component and that include an insulation layer ; a plurality of snaps configured to be mechanically fastened through the material layers; and a cap configured as a baffle to prevent thermal energy located at an exterior of the thermal blanket assembly from entering an interior of the thermal blanket assembly when the thermal blanket assembly is assembled; characterised in that : the material layers include: a silicone-impregnated aluminized fiberglass layer ; and a ceramic layer . a silicone-impregnated aluminized fiberglass layer ; and a ceramic layer .
A sheet having an elastomer layer having a Shore A hardness of less than 40 and not less than 0.5 which is measured according to ASTM D2240, wherein the elastomer layer has a 90 degree peel strength to stainless steel of not more than 11 oz/in (1.223 N/cm) and not less than 1 oz/in (0.111 N/cm) which is measured according to ASTM D1000.
A vehicle sound generation device to be mounted in a vehicle , wherein the vehicle is configured to travel using a rotational power source including an electric motor and/or an engine, the vehicle sound generation device comprising: a sound control unit configured to generate a synthetic sound signal representing a sound and set localization of the sound; and a sound output unit configured to output a sound corresponding to the sound signal for which the localization is set by the sound control unit , wherein the sound control unit is configured to generate the synthetic sound signal including a plurality of frequencies and to set the localization of the sound based on a change amount per unit time of a physical quantity correlated with a driving operation by a driver of the vehicle , characterized in that when the change amount per unit time of the physical quantity is more than a predetermined value, a sound image of at least a part of frequency components of the sound is located toward a wheel where a ground load increases according to the driving operation, when the change amount per unit time of the physical quantity is equal to or less than the predetermined value, a sound image of a frequency component other than at least the part of frequency components is located toward the rotational power source, and at least the part of frequency components is lower than the frequency component other than at least the part of frequency components. a sound control unit configured to generate a synthetic sound signal representing a sound and set localization of the sound; and a sound output unit configured to output a sound corresponding to the sound signal for which the localization is set by the sound control unit , wherein the sound control unit is configured to generate the synthetic sound signal including a plurality of frequencies and to set the localization of the sound based on a change amount per unit time of a physical quantity correlated with a driving operation by a driver of the vehicle , characterized in that when the change amount per unit time of the physical quantity is more than a predetermined value, a sound image of at least a part of frequency components of the sound is located toward a wheel where a ground load increases according to the driving operation, when the change amount per unit time of the physical quantity is equal to or less than the predetermined value, a sound image of a frequency component other than at least the part of frequency components is located toward the rotational power source, and at least the part of frequency components is lower than the frequency component other than at least the part of frequency components.
One or more non-transitory machine-readable media comprising program code for storage layer based orchestrating of a virtualized system launching into a foreign virtualization environment, the program code executable to: identify a first logical storage container in a cloud environment that has been replicated from a second logical storage container in a source environment; identify virtual disks in the first logical storage container that include boot data for virtual machines of the source environment; convert the identified virtual disks into storage container representations using sub-file cloning, wherein data blocks with virtual machine metadata are disregarded; mount the storage container representations for access by virtual machines deployed in the cloud environment; and chain load the boot data of the storage container representations into corresponding ones of the deployed virtual machines. identify a first logical storage container in a cloud environment that has been replicated from a second logical storage container in a source environment; identify virtual disks in the first logical storage container that include boot data for virtual machines of the source environment; convert the identified virtual disks into storage container representations using sub-file cloning, wherein data blocks with virtual machine metadata are disregarded; mount the storage container representations for access by virtual machines deployed in the cloud environment; and chain load the boot data of the storage container representations into corresponding ones of the deployed virtual machines.
A tantalum sputtering target, comprising 30 mass ppm or more and 100 mass ppm or less of oxygen as an essential component, wherein the purity of the tantalum sputtering target excluding oxygen and gas components is 99.998 mass % or higher, characterized by the tantalum sputtering target having a recrystallized structure wherein the average crystal grain size of the recrystallized structure is 120 μm or less; and variation in the crystal grain size within the target as determined by the method according to the description is ±20% or less.
A linkage assembly for a gas turbine engine comprising: a link (102a-102d) having a first end , a second end , and a rod extending therebetween, the first end having a first sliding bearing disposed within a first sliding bearing housing , a fastener comprising a first flange and a second flange , a pin extending between the first flange and the second flange, wherein the first sliding bearing is pivotally connected to the pin; and a biasing member secured between the first flange and the sliding bearing housing, the biasing member contacting the sliding bearing housing and biasing the link against rotation about a center axis for the rod of the link, characterised in that the first flange has a first elongated C-groove and the second flange has a second elongated C-groove , each elongated C-groove opening towards the first sliding bearing housing, and the biasing member comprises a plurality of biasing members, including: a first elongated C-brace seated in the first elongated C-groove and contacting the first sliding bearing housing, and a second elongated C-brace seated in the second elongated C-groove and contacting the first sliding bearing housing. a link (102a-102d) having a first end , a second end , and a rod extending therebetween, the first end having a first sliding bearing disposed within a first sliding bearing housing , a fastener comprising a first flange and a second flange , a pin extending between the first flange and the second flange, wherein the first sliding bearing is pivotally connected to the pin; and a biasing member secured between the first flange and the sliding bearing housing, the biasing member contacting the sliding bearing housing and biasing the link against rotation about a center axis for the rod of the link, characterised in that the first flange has a first elongated C-groove and the second flange has a second elongated C-groove , each elongated C-groove opening towards the first sliding bearing housing, and the biasing member comprises a plurality of biasing members, including: a first elongated C-brace seated in the first elongated C-groove and contacting the first sliding bearing housing, and a second elongated C-brace seated in the second elongated C-groove and contacting the first sliding bearing housing. a first elongated C-brace seated in the first elongated C-groove and contacting the first sliding bearing housing, and a second elongated C-brace seated in the second elongated C-groove and contacting the first sliding bearing housing.
A communications method performed by a session management network element, the method characterized in comprising the steps of: • determining (step 601) information about a target data plane instance, wherein the information about the target data plane instance comprises a routing indicator, the routing indicator is used to determine an address of the target data plane instance, and the target data plane instance is associated with a wireless backhaul integrated access and backhaul node, wireless backhaul IAB node; and • sending (step 602) an N4 session management request message and a first indication to the IAB node by using a mobility management network element that provides a service for the IAB node or a donor node that provides the service for the IAB node, wherein the first indication is used to indicate to the IAB node that the IAB node is to send the N4 session management request message to the target data plane instance, wherein the N4 session management request message is used to indicate to manage a session context of the target data plane instance. • determining (step 601) information about a target data plane instance, wherein the information about the target data plane instance comprises a routing indicator, the routing indicator is used to determine an address of the target data plane instance, and the target data plane instance is associated with a wireless backhaul integrated access and backhaul node, wireless backhaul IAB node; and • sending (step 602) an N4 session management request message and a first indication to the IAB node by using a mobility management network element that provides a service for the IAB node or a donor node that provides the service for the IAB node, wherein the first indication is used to indicate to the IAB node that the IAB node is to send the N4 session management request message to the target data plane instance, wherein the N4 session management request message is used to indicate to manage a session context of the target data plane instance.
Method for emptying a reactor containing at least one bed of spent catalyst particles and that comprises at least one dump tube , which opens into the reactor in the bottom portion of said bed of particles or underneath the latter, the method comprising the following successive steps: - a first step of causing a proportion of the catalyst bed to flow out of the reactor via said dump tube ; then - a second step of expelling out of the reactor the catalyst remainder by driving towards the opening of the dump tube the catalyst particles remaining in the reactor at the end of the first step, this step being performed by means of a removable device introduced into the reactor via the dump tube, characterised in that said removable device comprises an articulated arm bearing one or more protuberances spirally disposed about a rotary axis (6, 6', 6"). - a first step of causing a proportion of the catalyst bed to flow out of the reactor via said dump tube ; then - a second step of expelling out of the reactor the catalyst remainder by driving towards the opening of the dump tube the catalyst particles remaining in the reactor at the end of the first step, this step being performed by means of a removable device introduced into the reactor via the dump tube,
A method for scanning an Access Point, AP, in a wireless communication system, the method comprising: receiving a beacon frame from an initial AP; identifying the initial AP as a first proximity AP located within a proximity of a User Equipment, UE; determining whether a first channel where the first proximity AP is located is congested based on the beacon frame received from the first proximity AP; if the first channel is not congested, scanning at least one AP operating on the first channel; accessing a selected AP with a highest signal strength among the at least one scanned AP; determining whether to re-scan an AP; if it is determined to re-scan, receiving a beacon frame from a second proximity AP on a second channel at a predicted time, wherein the predicted time is determined based on a beacon frame reception period; determining whether the second channel is congested based on the beacon frame received from the second proximity AP; and if the second channel is not congested, re-scanning at least one AP operating on the second channel, wherein the re-scanning is performed, when all channels are high in congestion, when the first channel is high in congestion, or when the UE is set to re-scan at predetermined intervals in a situation where the UE has not moved from a location where the UE scanned at least one AP operating on the first channel. receiving a beacon frame from an initial AP; identifying the initial AP as a first proximity AP located within a proximity of a User Equipment, UE; determining whether a first channel where the first proximity AP is located is congested based on the beacon frame received from the first proximity AP; if the first channel is not congested, scanning at least one AP operating on the first channel; accessing a selected AP with a highest signal strength among the at least one scanned AP; determining whether to re-scan an AP; if it is determined to re-scan, receiving a beacon frame from a second proximity AP on a second channel at a predicted time, wherein the predicted time is determined based on a beacon frame reception period; determining whether the second channel is congested based on the beacon frame received from the second proximity AP; and if the second channel is not congested, re-scanning at least one AP operating on the second channel, wherein the re-scanning is performed, when all channels are high in congestion, when the first channel is high in congestion, or when the UE is set to re-scan at predetermined intervals in a situation where the UE has not moved from a location where the UE scanned at least one AP operating on the first channel.