mhurhangee/ep-ind-claims huggingface dataset:
A thermal seal system comprising: a first metallic plate having a first inner surface and a first outer surface; a second metallic plate having a second inner surface and a second outer surface, the second metallic plate being oriented substantially parallel to the first metallic plate such that the first inner surface and the second inner surface are separated by a gap; a high temperature mineral wool insulation having a plate portion in contact with the first inner surface and the second inner surface, the plate portion filling a void between the first inner surface and the second inner surface, and having a shoulder portion extending from a perimeter of the plate portion, the shoulder portion extending outward from between the first metallic plate and the second metallic plate; a high temperature member coupled to the first metallic plate; and a composite member (220; 420) coupled to the second metallic plate, wherein the shoulder portion bends in a direction perpendicular to the plate portion, the shoulder portion being coupled to the composite member (220; 420) and configured to thermally seal and partially enclose at least a portion of the composite member (220; 420) for thermally insulating the high temperature member from the composite member (220; 420) wherein the second metallic plate is located. a first metallic plate having a first inner surface and a first outer surface; a second metallic plate having a second inner surface and a second outer surface, the second metallic plate being oriented substantially parallel to the first metallic plate such that the first inner surface and the second inner surface are separated by a gap; a high temperature mineral wool insulation having a plate portion in contact with the first inner surface and the second inner surface, the plate portion filling a void between the first inner surface and the second inner surface, and having a shoulder portion extending from a perimeter of the plate portion, the shoulder portion extending outward from between the first metallic plate and the second metallic plate; a high temperature member coupled to the first metallic plate; and a composite member (220; 420) coupled to the second metallic plate, wherein the shoulder portion bends in a direction perpendicular to the plate portion, the shoulder portion being coupled to the composite member (220; 420) and configured to thermally seal and partially enclose at least a portion of the composite member (220; 420) for thermally insulating the high temperature member from the composite member (220; 420) wherein the second metallic plate is located.
A method for generating an image of a subsurface formation, the method comprising: receiving (900; 1000) first seismic data associated with a base seismic survey of the subsurface formation; acquiring (902; 1002) second seismic data during a monitor seismic survey of the subsurface formation, wherein the monitor seismic survey is performed later in time and with different shot-receiver locations than the base seismic survey; estimating (904; 1008) subsurface reflection-points and incidence angles for traces in the first seismic data and in the second seismic data; binning (906; 1010) the first seismic data and the second seismic data so as to gather the traces of the first seismic data and of the second seismic data, in 4-dimensional bins determined based on the estimated reflection-points and incidence angles; and processing (506, 508, 510; 608, 610, 612) the 4D bins to generate the image of the subsurface formation. receiving (900; 1000) first seismic data associated with a base seismic survey of the subsurface formation; acquiring (902; 1002) second seismic data during a monitor seismic survey of the subsurface formation, wherein the monitor seismic survey is performed later in time and with different shot-receiver locations than the base seismic survey; estimating (904; 1008) subsurface reflection-points and incidence angles for traces in the first seismic data and in the second seismic data; binning (906; 1010) the first seismic data and the second seismic data so as to gather the traces of the first seismic data and of the second seismic data, in 4-dimensional bins determined based on the estimated reflection-points and incidence angles; and processing (506, 508, 510; 608, 610, 612) the 4D bins to generate the image of the subsurface formation.
A policy determining method, comprising: obtaining (203, 407, 503, 609), by a policy control network element, policy information from a data analytics network element; and determining (205, 408, 507, 610), by the policy control network element, an execution policy of a service based on the policy information; receiving, by the policy control network element, a service type that is of a to-be-sent service and that is sent from a session management network element; and the determining (205, 408, 507, 610), by the policy control network element, an execution policy of a service based on the policy information comprises: determining, by the policy control network element, an execution policy of a service of the service type based on the policy information; wherein the method further comprises: receiving, by the policy control network element, updated policy information sent from the data analytics network element; and determining, by the policy control network element based on the updated policy information, an updated execution policy of the service. obtaining (203, 407, 503, 609), by a policy control network element, policy information from a data analytics network element; and determining (205, 408, 507, 610), by the policy control network element, an execution policy of a service based on the policy information; receiving, by the policy control network element, a service type that is of a to-be-sent service and that is sent from a session management network element; and the determining (205, 408, 507, 610), by the policy control network element, an execution policy of a service based on the policy information comprises: determining, by the policy control network element, an execution policy of a service of the service type based on the policy information; wherein the method further comprises: receiving, by the policy control network element, updated policy information sent from the data analytics network element; and determining, by the policy control network element based on the updated policy information, an updated execution policy of the service. determining, by the policy control network element, an execution policy of a service of the service type based on the policy information; wherein the method further comprises: receiving, by the policy control network element, updated policy information sent from the data analytics network element; and determining, by the policy control network element based on the updated policy information, an updated execution policy of the service. receiving, by the policy control network element, updated policy information sent from the data analytics network element; and determining, by the policy control network element based on the updated policy information, an updated execution policy of the service.
A compression molding apparatus comprising: a pair of molds, i.e. an upper mold and a lower mold; a lower mold driving means which applies a compression load while moving the lower mold upward during clamping; and an upper mold driving means which can be switched from low pressure driving in which the upper mold is moved downward for a predetermined stroke length to high pressure driving which applies a load larger than the compression load applied to the lower mold, and supports the upper mold such that clamping is conducted against a compression load applied to the lower mold by switching to high pressure driving, after the upper mold is moved downward for a predetermined stroke length. a pair of molds, i.e. an upper mold and a lower mold; a lower mold driving means which applies a compression load while moving the lower mold upward during clamping; and an upper mold driving means which can be switched from low pressure driving in which the upper mold is moved downward for a predetermined stroke length to high pressure driving which applies a load larger than the compression load applied to the lower mold, and supports the upper mold such that clamping is conducted against a compression load applied to the lower mold by switching to high pressure driving, after the upper mold is moved downward for a predetermined stroke length.
A block for a vehicle, comprising: a main housing configured such that a first containing space in which a plurality of parts is mounted is formed therein; an upper housing configured such that at least part thereof is inserted into the main housing and a second containing space in which a plurality of parts is mounted is formed therein; support bars configured to protrude upward from edges of the main housing surrounding the upper housing, and to be elastically deformable in a direction away from the main housing; and temporary fastening portions configured to protrude downward from edges of the upper housing, and configured such that one end of each of the temporary fastening portions is selectively seated on an upper portion of a corresponding one of the support bars, wherein, when the temporary fastening portions are seated on upper portions of the support bars, the upper housing is temporarily fastened to the main housing, and, when the support bars are elastically deformed, the temporary fastening portions exit a state of being seated on the upper portions of the support bars, and thus the temporary fastening is released, and wherein at least part of each of the support bars is surrounded with an interference prevention portion provided on an outer surface of the main housing. a main housing configured such that a first containing space in which a plurality of parts is mounted is formed therein; an upper housing configured such that at least part thereof is inserted into the main housing and a second containing space in which a plurality of parts is mounted is formed therein; support bars configured to protrude upward from edges of the main housing surrounding the upper housing, and to be elastically deformable in a direction away from the main housing; and temporary fastening portions configured to protrude downward from edges of the upper housing, and configured such that one end of each of the temporary fastening portions is selectively seated on an upper portion of a corresponding one of the support bars, wherein, when the temporary fastening portions are seated on upper portions of the support bars, the upper housing is temporarily fastened to the main housing, and, when the support bars are elastically deformed, the temporary fastening portions exit a state of being seated on the upper portions of the support bars, and thus the temporary fastening is released, and wherein at least part of each of the support bars is surrounded with an interference prevention portion provided on an outer surface of the main housing.
Pharmaceutical composition, comprising the active substance metformin or a pharmaceutically compatible salt thereof in combination with one of the active substances sitagliptin or vildagliptin or a pharmaceutically compatible salt of one of these active substances and more than 10 wt.% of lubricant relative to the total weight of the composition, wherein the lubricant is polyethylene glycol or a mixture of polyethylene glycol with one or a plurality of other lubricants.
A method for distributed beamforming based on carrier to caused interference, the method being implemented by a base station of a plurality of base stations, each base station serving a single user, the method comprising: receiving channel state information from users; determining a transmit beamforming vector based on maximizing a utility function M( w i) that comprises a signal-to-caused-interference-plus-noise ratio, wherein each base station separately determines the transmit beamforming vector for its user; and using the transmit beamforming vector for beamforming; and wherein the caused interference to each user is scaled by one or more weighting factors α, wherein the scaling occurs as: M w i = | h ii w i | 2 P i ∑ j ≠ i α ij | h ij w i | 2 P i + α 0 N wherein w i denotes the transmit beamforming vector, h ii, h ij denote channel coefficients, P i denotes the power constraint for base station i. receiving channel state information from users; determining a transmit beamforming vector based on maximizing a utility function M( w i) that comprises a signal-to-caused-interference-plus-noise ratio, wherein each base station separately determines the transmit beamforming vector for its user; and using the transmit beamforming vector for beamforming; and wherein the caused interference to each user is scaled by one or more weighting factors α, wherein the scaling occurs as: M w i = | h ii w i | 2 P i ∑ j ≠ i α ij | h ij w i | 2 P i + α 0 N wherein w i denotes the transmit beamforming vector, h ii, h ij denote channel coefficients, P i denotes the power constraint for base station i.
Method for automatically actuating a closing element (1; 2) of a vehicle, wherein an object is detected by means of an optical sensor, wherein the closing element (1; 2) is actuated as a function of the detection of the object, wherein with the optical sensor it is checked whether an obstacle is located in a movement path of the closing element (1; 2) during the actuation of the closing element (1; 2), and wherein the actuation of the closing element (1; 2) is interrupted if the optical sensor detects an obstacle in the movement path of the closing element (1; 2), characterized in that the closing element (1; 2) is opened automatically if a person is detected standing in front of the closing element (1; 2) by the optical sensor over a predetermined time period, and in that at least one information item from a group of information items is determined by means of the optical sensor during the automatic actuation of the closing element (1; 2), wherein the group comprises: • a degree of opening of the closing element (1; 2), • information as to whether the closing element (1; 2) is located in an end position, and • a speed with which the closing element (1; 2) moves. • a degree of opening of the closing element (1; 2), • information as to whether the closing element (1; 2) is located in an end position, and • a speed with which the closing element (1; 2) moves.
A network node that participates in an Internet Protocol-Connectivity Access Network (IP-CAN) session establishment within a telecommunications network, the network node configured to: receive a user privacy policy of an end user, wherein the user privacy policy indicates whether or not data flows to and from a user equipment used by the end user are to be routed through a traffic detection function node; and characterized by: utilizing the user privacy policy during the IP-CAN session establishment to assign an IP address to the end user, wherein the assigned IP address ensures that the data flows to and from the user equipment are routed or not through a TDF node depending on the user privacy policy. receive a user privacy policy of an end user, wherein the user privacy policy indicates whether or not data flows to and from a user equipment used by the end user are to be routed through a traffic detection function node; and characterized by: utilizing the user privacy policy during the IP-CAN session establishment to assign an IP address to the end user, wherein the assigned IP address ensures that the data flows to and from the user equipment are routed or not through a TDF node depending on the user privacy policy.
Mounting device for the releasable mounting of a telescopic sight on a weapon consisting of a weapon-side base rail and a telescopic sight-side mounting rail connected thereto via at least one locking element (10, 11), wherein at least one clamping force acting perpendicularly to the surface of the two rails (3, 4) can be generated by actuating the locking element (10, 11) resulting in a positive and non-positive connection between the two rails (3, 4), wherein a clamping shaft of the locking element (10, 11) is held rotatably in the one rail (3, 4) and supports at least one wedge recess which, during rotating actuation of the locking element (10, 11), can be brought into non-positive engagement with a recess on a stay bolt which is arranged on the opposite rail (4, 3), wherein the locking element (10, 11), during clamping or locking between the weapon-side base rail and the mounting rail held positively thereon, additionally generates a displacement force acting in axial longitudinal direction of the two rails (3, 4), characterised in that the stay bolt is mounted in a spring-loaded manner in a rail-side guide part in an axially displaceable manner.
A method of detecting an object using a radar system comprising an antenna configured to have two resonant frequencies being a first resonant frequency and a second resonant frequency, the method comprising: transmitting, from the antenna, a first radar beam at a first frequency substantially equal to the first resonant frequency, the first radar beam having a first radiation pattern comprising a peak at zero azimuth angle; detecting a first signal from the object due to a reflection of the first radar beam; transmitting, from the antenna, a second radar beam at a second frequency substantially equal to the second resonant frequency, the second radar beam having a second radiation pattern comprising two peaks at non-zero azimuth angles arranged symmetrically around the zero azimuth angle; detecting a second signal from the object due to a reflection of the second radar beam; and comparing the first signal and the second signal to determine an angular location of the object relative to the zero azimuth angle. transmitting, from the antenna, a first radar beam at a first frequency substantially equal to the first resonant frequency, the first radar beam having a first radiation pattern comprising a peak at zero azimuth angle; detecting a first signal from the object due to a reflection of the first radar beam; transmitting, from the antenna, a second radar beam at a second frequency substantially equal to the second resonant frequency, the second radar beam having a second radiation pattern comprising two peaks at non-zero azimuth angles arranged symmetrically around the zero azimuth angle; detecting a second signal from the object due to a reflection of the second radar beam; and comparing the first signal and the second signal to determine an angular location of the object relative to the zero azimuth angle.
A method comprising: - detecting an access card by an accessing device associated with a premises, wherein the accessing device comprises a lock for installation on the premises; - establishing a communication between the accessing device and a user device after detecting the access card; - generating, by the accessing device after the communication between the accessing device and the user device is established, user credentials for a user of the user device to access the accessing device; - transmitting the user credentials to the user device to access the accessing device using the user credentials; and - receiving, at the accessing device, the user credentials from the user and providing access to the user based on a validation of the user credentials. - detecting an access card by an accessing device associated with a premises, wherein the accessing device comprises a lock for installation on the premises; - establishing a communication between the accessing device and a user device after detecting the access card; - generating, by the accessing device after the communication between the accessing device and the user device is established, user credentials for a user of the user device to access the accessing device; - transmitting the user credentials to the user device to access the accessing device using the user credentials; and - receiving, at the accessing device, the user credentials from the user and providing access to the user based on a validation of the user credentials.
A method for a controller (300, 500) of a media playback system comprising at least one zone, each zone comprising at least one playback device (200, 202, 204, 400) having audio-playback software installed thereon and configured for playing back audio in the respective zone, the method comprising: displaying, on a user interface (1000, 1020, 1100A, 1100B, 1300) of the controller (300, 500) of the media playback system, a zone identifier that identifies a particular zone of the media playback system; the method characterized by further comprising: receiving a user input to assign a software application to the particular zone, wherein the software application is configured to operate as an add-on software component to the audio-playback software to alter playback of audio; displaying, on the user interface of the controller, an application identifier (1004, 1006, 1024, 1026, 1030, 1032, 1104A, 1104B, 1106A, 1106B, 1362, 1364, 1372) that identifies the software application in association with the zone identifier of the particular zone; determining that the particular zone is playing audio; and in response to the determination, causing the software application to be executed on the at least one playback device of the particular zone to alter playback of the audio by the at least one playback device. displaying, on a user interface (1000, 1020, 1100A, 1100B, 1300) of the controller (300, 500) of the media playback system, a zone identifier that identifies a particular zone of the media playback system; the method characterized by further comprising: receiving a user input to assign a software application to the particular zone, wherein the software application is configured to operate as an add-on software component to the audio-playback software to alter playback of audio; displaying, on the user interface of the controller, an application identifier (1004, 1006, 1024, 1026, 1030, 1032, 1104A, 1104B, 1106A, 1106B, 1362, 1364, 1372) that identifies the software application in association with the zone identifier of the particular zone; determining that the particular zone is playing audio; and in response to the determination, causing the software application to be executed on the at least one playback device of the particular zone to alter playback of the audio by the at least one playback device. receiving a user input to assign a software application to the particular zone, wherein the software application is configured to operate as an add-on software component to the audio-playback software to alter playback of audio; displaying, on the user interface of the controller, an application identifier (1004, 1006, 1024, 1026, 1030, 1032, 1104A, 1104B, 1106A, 1106B, 1362, 1364, 1372) that identifies the software application in association with the zone identifier of the particular zone; determining that the particular zone is playing audio; and in response to the determination, causing the software application to be executed on the at least one playback device of the particular zone to alter playback of the audio by the at least one playback device.