mhurhangee/patent-ind-claim-en huggingface dataset:
An R-θ table apparatus comprising: a table which is provided with a through hole having a bearing ; a guide member which holds the table to be horizontally freely movable; a driving apparatus which is provided with an action axis inserted being inclined to the bearing , and adapted to drive the action axis to be freely rotated and stopped; an elevating base which is adapted to elevate the driving apparatus ; an elevating apparatus which is adapted to elevate the elevating base , and change a position of an action point at which the action axis and the bearing are engaged with each other; and a base which is provided with a post that guides the elevating base and the guide member , and mounts the elevating apparatus , wherein the horizontal distance between a center line of a main axis of the driving apparatus and the action point is changed by elevating the elevating base , and the table is moved to an arbitrary position without rotating along the guide member . a table which is provided with a through hole having a bearing ; a guide member which holds the table to be horizontally freely movable; a driving apparatus which is provided with an action axis inserted being inclined to the bearing , and adapted to drive the action axis to be freely rotated and stopped; an elevating base which is adapted to elevate the driving apparatus ; an elevating apparatus which is adapted to elevate the elevating base , and change a position of an action point at which the action axis and the bearing are engaged with each other; and a base which is provided with a post that guides the elevating base and the guide member , and mounts the elevating apparatus , wherein the horizontal distance between a center line of a main axis of the driving apparatus and the action point is changed by elevating the elevating base , and the table is moved to an arbitrary position without rotating along the guide member .
A wireless communication method , said method comprising: receiving, at a femtocell base station operating in a cellular network, from a user equipment , a signal indicating a preference for communicating on an unlicensed band; considering, at said femtocell base station, the signal indicating a preference for communicating on an unlicensed band; identifying a plurality of unlicensed bands available for communication between the femtocell base station and the user equipment; prioritizing the plurality of unlicensed bands; selecting, at said femtocell base station, an unlicensed band for communication based upon said prioritizing; modifying, at said femtocell base station, an LTE communication protocol comprising a physical layer component to enable communication on said selected unlicensed band; and transmitting, from said femtocell base station, data on said selected unlicensed band using said modified LTE communication protocol to a user equipment. receiving, at a femtocell base station operating in a cellular network, from a user equipment , a signal indicating a preference for communicating on an unlicensed band; considering, at said femtocell base station, the signal indicating a preference for communicating on an unlicensed band; identifying a plurality of unlicensed bands available for communication between the femtocell base station and the user equipment; prioritizing the plurality of unlicensed bands; selecting, at said femtocell base station, an unlicensed band for communication based upon said prioritizing; modifying, at said femtocell base station, an LTE communication protocol comprising a physical layer component to enable communication on said selected unlicensed band; and transmitting, from said femtocell base station, data on said selected unlicensed band using said modified LTE communication protocol to a user equipment.
A signal transmission method, comprising: mapping, by a transmit end to M evenly spaced subcarriers, a first sequence a 0 , a 1 ,.. . , a M -1 comprising M elements, and mapping, to the M subcarriers, a second sequence b 0 , b 1 ,.., b M -1 comprising M elements, wherein the M subcarriers are subcarriers on a same time domain symbol, the first sequence and the second sequence are code division-orthogonal, the first sequence a 0 , a 1 ,.. . , a M -1 is obtained by extending a third sequence c 0 , c 1 ,..., c K -1 having a length of K, and the second sequence b 0 , b 1 ,..., b M -1 is obtained by extending a fourth sequence d 0 , d 1 ,.. . , d K -1 having a length of K , wherein M = p × K , a i = c i mod K × e j 2 π iu M , b i = d i mod K × e j 2 πiv M , i is a variable, a value of i is 0, 1, ..., M - 1, u and v each are one of 0, 1, ..., p - 1, v is not equal to u , and M, p, and K are all positive integers; generating, by the transmit end, a to-be-sent signal based on elements on the M subcarriers; and sending, by the transmit end, the to-be-sent signal. mapping, by a transmit end to M evenly spaced subcarriers, a first sequence a 0 , a 1 ,.. . , a M -1 comprising M elements, and mapping, to the M subcarriers, a second sequence b 0 , b 1 ,.., b M -1 comprising M elements, wherein the M subcarriers are subcarriers on a same time domain symbol, the first sequence and the second sequence are code division-orthogonal, the first sequence a 0 , a 1 ,.. . , a M -1 is obtained by extending a third sequence c 0 , c 1 ,..., c K -1 having a length of K, and the second sequence b 0 , b 1 ,..., b M -1 is obtained by extending a fourth sequence d 0 , d 1 ,.. . , d K -1 having a length of K , wherein M = p × K , a i = c i mod K × e j 2 π iu M , b i = d i mod K × e j 2 πiv M , i is a variable, a value of i is 0, 1, ..., M - 1, u and v each are one of 0, 1, ..., p - 1, v is not equal to u , and M, p, and K are all positive integers; generating, by the transmit end, a to-be-sent signal based on elements on the M subcarriers; and sending, by the transmit end, the to-be-sent signal.
A method for restoring a tip rail of a turbine rotor blade , the method comprising: repairing a damaged area in a tip rail of a turbine rotor blade by advancing a first wire material into the damaged area while first laser irradiating the first wire material with a laser in an inert gas in a vicinity of the damaged area , wherein the first laser irradiating the first wire material includes modulated pulsing the laser through: a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, wherein the first laser irradiated wire material forms a first weld material in the damaged area ; first spraying a bond coating on at least an inner rail surface of the tip rail and the repaired damaged area ; and second spraying a thermal barrier coating (TBC) coating on the bond coating . repairing a damaged area in a tip rail of a turbine rotor blade by advancing a first wire material into the damaged area while first laser irradiating the first wire material with a laser in an inert gas in a vicinity of the damaged area , wherein the first laser irradiating the first wire material includes modulated pulsing the laser through: a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, a first warm up phase during which an on-power of the laser is increased over time to a maximum target on-power for the first laser irradiating, a first melt and bond phase during which the wire material is melted and during which the on-power for the first laser irradiating is less than the maximum target on-power for the first laser irradiating, and a first stress releasing phase during which the on-power of the laser is less than the on-power during the melt and bond phase, wherein the first laser irradiated wire material forms a first weld material in the damaged area ; first spraying a bond coating on at least an inner rail surface of the tip rail and the repaired damaged area ; and second spraying a thermal barrier coating (TBC) coating on the bond coating .
A gas generator , for a vehicle safety system, comprising an ignition unit including a holding element , an igniter and a base , the base being formed by one single plastic injection molding so that the igniter is embedded in the base and the base is injection-molded to the holding element , wherein a membrane is provided which seals an inner first opening of the holding element , wherein the holding element is configured as an elongate sleeve-shaped hollow body comprising the first opening which is located inside the gas generator , and a second opening opposite thereto on the front side, wherein the holding element and the membrane are made from metal characterized in that the holding element has, in the area of its first opening , a first lengthening which projects from the igniter in terms of its longitudinal extension, wherein the membrane is in the form of a planar disk and is materially connected to the holding element by a first joint such, that the Membrane seals the inner first opening in a water-tight and gastight manner.
A computer-implemented method comprising: during setup or an initial synchronization phase, accessing a first synchronization server that provides an invalid first incoming synchronization server digital certificate ; receiving an indication that synchronization server digital certificate invalidity is to be ignored; and saving the invalid first incoming synchronization server digital certificate via a persisted invalid synchronization server digital certificate identifier; characterized by : during a subsequent synchronization phase, while attempting to access the first synchronization server , connecting to an impersonating server that provides a second incoming synchronization server digital certificate ; and, responsive to detecting that the persisted invalid synchronization server digital certificate identifier indicates that the second incoming synchronization server digital certificate does not match the first incoming synchronization server digital certificate , generating an error condition. during setup or an initial synchronization phase, accessing a first synchronization server that provides an invalid first incoming synchronization server digital certificate ; receiving an indication that synchronization server digital certificate invalidity is to be ignored; and saving the invalid first incoming synchronization server digital certificate via a persisted invalid synchronization server digital certificate identifier; characterized by : during a subsequent synchronization phase, while attempting to access the first synchronization server , connecting to an impersonating server that provides a second incoming synchronization server digital certificate ; and, responsive to detecting that the persisted invalid synchronization server digital certificate identifier indicates that the second incoming synchronization server digital certificate does not match the first incoming synchronization server digital certificate , generating an error condition.
A rotor hub fairing system for use in a counter-rotating, coaxial rotor system comprising: an upper hub fairing defined about an axis; a lower hub fairing defined about the axis; and a shaft fairing disposed between the upper hub fairing and the lower hub fairing , wherein a geometry of the shaft fairing is configured to encourage a wake adjacent the upper hub fairing to form collectively with a wake adjacent the lower hub fairing ; wherein the shaft fairing includes a trailing edge extending aft of the upper hub fairing and the lower hub fairing , at least a portion of the trailing edge being generally curved; and wherein the shaft fairing includes a top surface positioned adjacent the upper hub fairing and the top surface adjacent the trailing edge curves downward towards a bottom surface of the shaft fairing ; wherein at least a portion of the top surface is angled downwardly. characterized in that the angled portion of the top surface begins at a portion of the top surface adjacent a periphery of the upper hub fairing . an upper hub fairing defined about an axis; a lower hub fairing defined about the axis; and a shaft fairing disposed between the upper hub fairing and the lower hub fairing , wherein a geometry of the shaft fairing is configured to encourage a wake adjacent the upper hub fairing to form collectively with a wake adjacent the lower hub fairing ; wherein the shaft fairing includes a trailing edge extending aft of the upper hub fairing and the lower hub fairing , at least a portion of the trailing edge being generally curved; and wherein the shaft fairing includes a top surface positioned adjacent the upper hub fairing and the top surface adjacent the trailing edge curves downward towards a bottom surface of the shaft fairing ; wherein at least a portion of the top surface is angled downwardly. characterized in that the angled portion of the top surface begins at a portion of the top surface adjacent a periphery of the upper hub fairing .
An anisotropic conductive polymer sphere comprising a polymeric core having at least a portion of an outer surface of the sphere coated with at least one up-converting material that responds to near infrared photons.
A touch panel comprising: a receiver configured to receive response signals from a plurality of objects ; and a controller configured to identify positions of the plurality of objects based on different frequencies emitted from each of the plurality of objects in response to the response signals being simultaneously received through the receiver , wherein the controller is further configured to alternately perform a first scanning operation that determines a position of a contact object using all the response signals of the plurality of antenna loops (111-1, 111-2, 111-3, 111-4, 111-5) and a second scanning operation that determines a position of a contact object only using a response signal of a loop group corresponding to the detected contact object in the first scanning operation, wherein, in response to a number of contact objects determined in the second scanning operation being smaller than a number of contact objects determined in a previous process, the controller is further configured to determine a position of the contact object by additionally using a response signal of another loop group adjacent to the loop group. a receiver configured to receive response signals from a plurality of objects ; and a controller configured to identify positions of the plurality of objects based on different frequencies emitted from each of the plurality of objects in response to the response signals being simultaneously received through the receiver , wherein the controller is further configured to alternately perform a first scanning operation that determines a position of a contact object using all the response signals of the plurality of antenna loops (111-1, 111-2, 111-3, 111-4, 111-5) and a second scanning operation that determines a position of a contact object only using a response signal of a loop group corresponding to the detected contact object in the first scanning operation, wherein, in response to a number of contact objects determined in the second scanning operation being smaller than a number of contact objects determined in a previous process, the controller is further configured to determine a position of the contact object by additionally using a response signal of another loop group adjacent to the loop group. wherein the controller is further configured to alternately perform a first scanning operation that determines a position of a contact object using all the response signals of the plurality of antenna loops (111-1, 111-2, 111-3, 111-4, 111-5) and a second scanning operation that determines a position of a contact object only using a response signal of a loop group corresponding to the detected contact object in the first scanning operation, wherein, in response to a number of contact objects determined in the second scanning operation being smaller than a number of contact objects determined in a previous process, the controller is further configured to determine a position of the contact object by additionally using a response signal of another loop group adjacent to the loop group.
A medical device for delivering a therapeutic agent to a tissue, the device comprising a layer overlying an exterior surface of the medical device, wherein the layer consists essentially of a therapeutic agent, an antioxidant, and urea.
A camera assembly , comprising: a camera module including: a housing having an exterior rear surface of a first shape; and a curved magnetic plate attached to a rear portion of the housing; and a magnet mount for physically receiving the camera module, the magnet mount including: a receiving surface having a second shape that is substantially complementary to the first shape of the exterior rear surface of the housing of the camera module , the receiving surface being configured to engage the exterior rear surface of the housing of the camera module ; and a magnetic material covered by the receiving surface, the magnetic material magnetically coupling to the magnetic plate of the camera module, characterized in that the magnetic plate is enclosed inside the housing of the camera module , and attached to an interior rear surface that is opposite to the exterior rear surface of the housing . a camera module including: a housing having an exterior rear surface of a first shape; and a curved magnetic plate attached to a rear portion of the housing; and a housing having an exterior rear surface of a first shape; and a curved magnetic plate attached to a rear portion of the housing; and a magnet mount for physically receiving the camera module, the magnet mount including: a receiving surface having a second shape that is substantially complementary to the first shape of the exterior rear surface of the housing of the camera module , the receiving surface being configured to engage the exterior rear surface of the housing of the camera module ; and a magnetic material covered by the receiving surface, the magnetic material magnetically coupling to the magnetic plate of the camera module, a receiving surface having a second shape that is substantially complementary to the first shape of the exterior rear surface of the housing of the camera module , the receiving surface being configured to engage the exterior rear surface of the housing of the camera module ; and a magnetic material covered by the receiving surface, the magnetic material magnetically coupling to the magnetic plate of the camera module, characterized in that the magnetic plate is enclosed inside the housing of the camera module , and attached to an interior rear surface that is opposite to the exterior rear surface of the housing .
A method for protecting a circuit design for an integrated circuit, the method comprising: identifying logic circuits in at least a portion of the circuit design for replacement; replacing the logic circuits in the circuit design with a bitstream and configurable circuits that comprise memory circuits; generating a transformed circuit design for the integrated circuit that comprises the configurable circuits, wherein the configurable circuits in the transformed circuit design perform logic functions of the logic circuits when the bitstream is stored in the memory circuits in the configurable circuits; the method characterized in that it further comprises: determining if the transformed circuit design exceeds a metric representative of a maximum additional circuit overhead allowed for the transformed circuit design; and reducing, based on the determining, an amount of additional circuity in the transformed circuit design during an additional iteration. identifying logic circuits in at least a portion of the circuit design for replacement; replacing the logic circuits in the circuit design with a bitstream and configurable circuits that comprise memory circuits; generating a transformed circuit design for the integrated circuit that comprises the configurable circuits, wherein the configurable circuits in the transformed circuit design perform logic functions of the logic circuits when the bitstream is stored in the memory circuits in the configurable circuits; the method characterized in that it further comprises: determining if the transformed circuit design exceeds a metric representative of a maximum additional circuit overhead allowed for the transformed circuit design; and reducing, based on the determining, an amount of additional circuity in the transformed circuit design during an additional iteration. determining if the transformed circuit design exceeds a metric representative of a maximum additional circuit overhead allowed for the transformed circuit design; and reducing, based on the determining, an amount of additional circuity in the transformed circuit design during an additional iteration.