mhurhangee/patent-ind-claim-en huggingface dataset:
A system to position a filter in an imaging system , comprising: a mounting plate defining an aperture through the mounting plate ; a filter frame having at least a first filter holding portion operable to move relative to the aperture ; a movement system configured to move the filter frame relative to the aperture , the movement system having: a motor fixed to the mounting plate ; only a single rail extending between a first end and a second end and fixed to the mounting plate , wherein the single rail extends along a first side of the filter frame ; a screw configured to be rotated by the motor , wherein the screw includes an exterior thread and extends along a second side of the filter frame opposed to the first side; a connection member having (i) internal threads to engage the external threads of the screw and (ii) a filter frame connection , wherein the connection member is operable to move relative to the rail when the screw is rotated by the motor ; and a position determining assembly having (i) a shaft coupled to the screw and (ii) a sensor operable to sense a rotation of the screw . a mounting plate defining an aperture through the mounting plate ; a filter frame having at least a first filter holding portion operable to move relative to the aperture ; a movement system configured to move the filter frame relative to the aperture , the movement system having: a motor fixed to the mounting plate ; only a single rail extending between a first end and a second end and fixed to the mounting plate , wherein the single rail extends along a first side of the filter frame ; a screw configured to be rotated by the motor , wherein the screw includes an exterior thread and extends along a second side of the filter frame opposed to the first side; a connection member having (i) internal threads to engage the external threads of the screw and (ii) a filter frame connection , wherein the connection member is operable to move relative to the rail when the screw is rotated by the motor ; and a motor fixed to the mounting plate ; only a single rail extending between a first end and a second end and fixed to the mounting plate , wherein the single rail extends along a first side of the filter frame ; a screw configured to be rotated by the motor , wherein the screw includes an exterior thread and extends along a second side of the filter frame opposed to the first side; a connection member having (i) internal threads to engage the external threads of the screw and (ii) a filter frame connection , wherein the connection member is operable to move relative to the rail when the screw is rotated by the motor ; and a position determining assembly having (i) a shaft coupled to the screw and (ii) a sensor operable to sense a rotation of the screw .
A method of transmitting uplink control information, UCI, as a bundled transmission over a bundle of subframes by a user equipment, UE, comprising: determining a first bundling size for transmitting a physical uplink shared channel, PUSCH ; determining a second bundling size for transmitting the UCI; determining when to transmit the UCI as a bundled transmission based, at least in part, on an amount of overlap between the UCI and PUSCH; and transmitting the UCI and the PUSCH as bundled transmissions according to the first and second bundling sizes; wherein determining when to transmit the UCI comprises dropping the PUSCH on an overlapping part between the UCI and the PUSCH. determining a first bundling size for transmitting a physical uplink shared channel, PUSCH ; determining a second bundling size for transmitting the UCI; determining when to transmit the UCI as a bundled transmission based, at least in part, on an amount of overlap between the UCI and PUSCH; and transmitting the UCI and the PUSCH as bundled transmissions according to the first and second bundling sizes; wherein determining when to transmit the UCI comprises dropping the PUSCH on an overlapping part between the UCI and the PUSCH.
A drive apparatus comprising: a first rotary member ; a second rotary member , which is provided with an axle hole , and which receives drive power from the first rotary member or transmits drive power to the first rotary member ; an axle member , which is inserted into the axle hole and engages with the first rotary member so as to transmit drive power between the first rotary member and the second rotary member ; and a coupling member (60, 62; 162) for coupling the first rotary member and the second rotary member ; characterized in that the coupling member (60, 62; 162) is provided with a sliding portion (622; 1622) which is disposed between the first rotary member and the second rotary member in a radial direction and which is slidably and swingably supported on either one of the first rotary member and the second rotary member to permit swinging and sliding movement between either the first rotary member or the second rotary member and the coupling member (60, 62; 162) when the first rotary member and the second rotary member rotate integrally with each other via the axle member . a first rotary member ; a second rotary member , which is provided with an axle hole , and which receives drive power from the first rotary member or transmits drive power to the first rotary member ; an axle member , which is inserted into the axle hole and engages with the first rotary member so as to transmit drive power between the first rotary member and the second rotary member ; and a coupling member (60, 62; 162) for coupling the first rotary member and the second rotary member ; characterized in that the coupling member (60, 62; 162) is provided with a sliding portion (622; 1622) which is disposed between the first rotary member and the second rotary member in a radial direction and which is slidably and swingably supported on either one of the first rotary member and the second rotary member to permit swinging and sliding movement between either the first rotary member or the second rotary member and the coupling member (60, 62; 162) when the first rotary member and the second rotary member rotate integrally with each other via the axle member .
A composition comprising: a core material having a taste value; a polymeric coating surrounding at least 90 % of the core material surface area, said polymeric coating comprising a cationic polymer and an anionic polymer mixture, including medium chain polyphosphates and long chain polyphosphates in a ratio of 60:40, wherein said polymeric coating has a uniform thickness ranging from 1 μm to 20 μm; wherein said composition provides a controlled release corresponding to less than 40 wt.-% of the core material in the oral cavity of a portion of the core material which is taste masked, over a time period ranging from 0.5 minute to 2 minutes in the oral cavity and provides modified-release of the remaining core material in a gastrointestinal tract. a core material having a taste value; a polymeric coating surrounding at least 90 % of the core material surface area, said polymeric coating comprising a cationic polymer and an anionic polymer mixture, including medium chain polyphosphates and long chain polyphosphates in a ratio of 60:40, wherein said polymeric coating has a uniform thickness ranging from 1 μm to 20 μm; wherein said composition provides a controlled release corresponding to less than 40 wt.-% of the core material in the oral cavity of a portion of the core material which is taste masked, over a time period ranging from 0.5 minute to 2 minutes in the oral cavity and provides modified-release of the remaining core material in a gastrointestinal tract.
A cross-blockchain interaction system, comprising: one or more anchors, wherein when any anchor is selected by a first blockchain, the any anchor is configured with a client device of the first blockchain so as to monitor a cross-blockchain request on the first blockchain; and one or more relays, wherein when any relay is selected by a second blockchain, the any relay is configured with a client device of the second blockchain; and when a request object of the cross-blockchain request is the second blockchain, the any relay initiates a request to the second blockchain based on the cross-blockchain request and receives response data and a blockchain attestation that are returned by the second blockchain, so that the any relay verifies the response data based on the blockchain attestation and the any relay generates a corresponding relay attestation based on a configured trusted attestation conversion technology after the verification is passed, so that the response data and the relay attestation are returned to the first blockchain through the any anchor, wherein a root of trust of the any relay is published in advance so that the first blockchain verifies the response data and the relay attestation based on the root of trust. one or more anchors, wherein when any anchor is selected by a first blockchain, the any anchor is configured with a client device of the first blockchain so as to monitor a cross-blockchain request on the first blockchain; and one or more relays, wherein when any relay is selected by a second blockchain, the any relay is configured with a client device of the second blockchain; and when a request object of the cross-blockchain request is the second blockchain, the any relay initiates a request to the second blockchain based on the cross-blockchain request and receives response data and a blockchain attestation that are returned by the second blockchain, so that the any relay verifies the response data based on the blockchain attestation and the any relay generates a corresponding relay attestation based on a configured trusted attestation conversion technology after the verification is passed, so that the response data and the relay attestation are returned to the first blockchain through the any anchor, wherein a root of trust of the any relay is published in advance so that the first blockchain verifies the response data and the relay attestation based on the root of trust.
A pharmaceutical composition for use as an anticancer adjuvant comprising a receptor-interacting protein kinase-3 (RIP3) protein expression inducing agent as an active ingredient, wherein the anticancer adjuvant enhances sensitivity to a chemotherapeutic agent in a cancer cell lacking expression of RIP3 protein, wherein the RIP3 protein expression inducing agent is a demethylating agent, and wherein the chemotherapeutic agent is to be administered after the RIP3 protein expression inducing agent.
A work vehicle for cutting crops comprising: a header supported by a chassis of the work vehicle , the header including a cutter assembly comprising: a cutter bar frame ; a series of rotary cutters mounted on the cutter bar frame and arranged in a lengthwise direction; and a gear train coupled to the series of rotary cutters to transfer power thereto, the gear train having a first gear and a second gear ; a cutter control system comprising: a first motor coupled to the first gear of the gear train to provide power to the gear train ; and a second motor coupled to the second gear of the gear train to provide power to the gear train ; and a controller , including a processor and memory architecture , operably connected to the first motor and the second motor to control operation thereof; the work vehicle being characterised in that the cutter control system is configured to drive the first gear at a first speed via the first motor and to drive the second gear at a second speed via the second motor , the second speed being different than the first speed to pre-load the gear train into enmeshing engagement with each other in one rotational direction. a cutter bar frame ; a series of rotary cutters mounted on the cutter bar frame and arranged in a lengthwise direction; and a gear train coupled to the series of rotary cutters to transfer power thereto, the gear train having a first gear and a second gear ; a cutter control system comprising: a first motor coupled to the first gear of the gear train to provide power to the gear train ; and a second motor coupled to the second gear of the gear train to provide power to the gear train ; and a controller , including a processor and memory architecture , operably connected to the first motor and the second motor to control operation thereof; the work vehicle being characterised in that the cutter control system is configured to drive the first gear at a first speed via the first motor and to drive the second gear at a second speed via the second motor , the second speed being different than the first speed to pre-load the gear train into enmeshing engagement with each other in one rotational direction. a first motor coupled to the first gear of the gear train to provide power to the gear train ; and a second motor coupled to the second gear of the gear train to provide power to the gear train ; and a controller , including a processor and memory architecture , operably connected to the first motor and the second motor to control operation thereof; the work vehicle being characterised in that the cutter control system is configured to drive the first gear at a first speed via the first motor and to drive the second gear at a second speed via the second motor , the second speed being different than the first speed to pre-load the gear train into enmeshing engagement with each other in one rotational direction.
A quality of service, QoS, guarantee method, wherein the method is applied to an evolved packet core, EPC, the EPC comprises a control plane gateway and at least two user plane gateways, and the method comprises: • obtaining (S301), by the control plane gateway, a quality of service, QoS, parameter; • mapping (S302), by the control plane gateway, the QoS parameter to QoS guarantee information, wherein a mapping relationship between the QoS parameter and the QoS guarantee information is configured on the control plane gateway and wherein the QoS guarantee information comprises a differentiated services code point, DSCP, parameter; • sending (S303), by the control plane gateway, the QoS guarantee information to the user plane gateways, to instruct the user plane gateways to provide QoS guarantee for a user equipment according to the QoS guarantee information, and • updating, by the control plane gateway, the mapping relationship between the QoS parameter and the QoS guarantee information when the DSCP parameter changes. • obtaining (S301), by the control plane gateway, a quality of service, QoS, parameter; • mapping (S302), by the control plane gateway, the QoS parameter to QoS guarantee information, wherein a mapping relationship between the QoS parameter and the QoS guarantee information is configured on the control plane gateway and wherein the QoS guarantee information comprises a differentiated services code point, DSCP, parameter; • sending (S303), by the control plane gateway, the QoS guarantee information to the user plane gateways, to instruct the user plane gateways to provide QoS guarantee for a user equipment according to the QoS guarantee information, and • updating, by the control plane gateway, the mapping relationship between the QoS parameter and the QoS guarantee information when the DSCP parameter changes.
A method for indicating a local group identifier for peer-to-peer communications, comprising: broadcasting , by a device, a generated candidate identifier for a local group identifier to multiple devices accessible in a network; receiving , by the device and from at least a portion of the multiple devices in the network multiple broadcasted candidate identifiers for the local group identifier, wherein one or more of the multiple broadcasted candidate identifiers are different from the generated candidate identifier; determining , by the device, based on the generated candidate identifier being different from the one or more of the multiple broadcasted candidate identifiers, and after broadcasting the generated candidate identifier, the local group identifier as being one of the generated candidate identifier and one or more of the multiple broadcasted candidate identifiers; reporting , by the device, the local group identifier to a peer matching service to facilitate grouping the device with at least the portion of the multiple devices in the network for performing peer-to-peer communications; following the performing peer-to-peer communications, detecting, by the device, the expiration of an associated expiration timer for the local group identifier; determining, by the device, to generate a new local group identifier based on the detection of the expiration; receiving , by the device, an indication to broadcast the new local group identifier; and broadcasting, by the device and based on the indication, the new local group identifier to the multiple devices. broadcasting , by a device, a generated candidate identifier for a local group identifier to multiple devices accessible in a network; receiving , by the device and from at least a portion of the multiple devices in the network multiple broadcasted candidate identifiers for the local group identifier, wherein one or more of the multiple broadcasted candidate identifiers are different from the generated candidate identifier; determining , by the device, based on the generated candidate identifier being different from the one or more of the multiple broadcasted candidate identifiers, and after broadcasting the generated candidate identifier, the local group identifier as being one of the generated candidate identifier and one or more of the multiple broadcasted candidate identifiers; reporting , by the device, the local group identifier to a peer matching service to facilitate grouping the device with at least the portion of the multiple devices in the network for performing peer-to-peer communications; following the performing peer-to-peer communications, detecting, by the device, the expiration of an associated expiration timer for the local group identifier; determining, by the device, to generate a new local group identifier based on the detection of the expiration; receiving , by the device, an indication to broadcast the new local group identifier; and broadcasting, by the device and based on the indication, the new local group identifier to the multiple devices.
A multiway switch , comprising: eight T ports and four P ports; the eight T ports comprising four first T ports and each of the four first T ports being coupled with all of the four P ports; the four first T ports supporting a transmission-reception function; and the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of an electronic device operable in a dual-frequency dual-transmit mode, to implement a preset function of the electronic device , the antenna system comprising four antennas corresponding to the four P ports, and the preset function being a function of transmitting a sounding reference signal, SRS, through the four antennas in turn; characterized in that the eight T ports further comprise four second T ports; two of the four second T ports at different frequency bands are coupled only with one of the four P ports; the other two of the four second T ports at different frequency bands are coupled with another one of the four P ports; each of the four P ports is configured to be coupled with a corresponding antenna of the four antennas; and the four second T ports support only a reception function. eight T ports and four P ports; the eight T ports comprising four first T ports and each of the four first T ports being coupled with all of the four P ports; the four first T ports supporting a transmission-reception function; and the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of an electronic device operable in a dual-frequency dual-transmit mode, to implement a preset function of the electronic device , the antenna system comprising four antennas corresponding to the four P ports, and the preset function being a function of transmitting a sounding reference signal, SRS, through the four antennas in turn; characterized in that the eight T ports further comprise four second T ports; two of the four second T ports at different frequency bands are coupled only with one of the four P ports; the other two of the four second T ports at different frequency bands are coupled with another one of the four P ports; each of the four P ports is configured to be coupled with a corresponding antenna of the four antennas; and the four second T ports support only a reception function.
A method of correcting a measurement error of a shape measuring apparatus, the shape measuring apparatus having a scanning probe for performing scanning measurement using a tip ball that is provided at an end of a stylus and is brought into contact with an object(B) to be measured, the method comprising the steps of: detecting a displacement of the tip ball of the scanning probe by a tip ball displacement detector ; detecting a displacement of a moving mechanism for relatively moving the object(B) to be measured and the scanning probe ; calculating an angle(θ) formed by a contact direction of the tip ball with the object(B) to be measured and an axial direction of the stylus ; correcting, on the basis of the angle(θ), the displacement of the tip ball that is detected by the tip ball displacement detector to account for an error due to the variation of a frequency transfer characteristic from the tip ball of the scanning probe to the tip ball displacement detector based on the angle (θ) and outputting a corrected value of the displacement; and adding the corrected value and the displacement of the moving mechanism to calculate a measurement value. detecting a displacement of the tip ball of the scanning probe by a tip ball displacement detector ; detecting a displacement of a moving mechanism for relatively moving the object(B) to be measured and the scanning probe ; calculating an angle(θ) formed by a contact direction of the tip ball with the object(B) to be measured and an axial direction of the stylus ; correcting, on the basis of the angle(θ), the displacement of the tip ball that is detected by the tip ball displacement detector to account for an error due to the variation of a frequency transfer characteristic from the tip ball of the scanning probe to the tip ball displacement detector based on the angle (θ) and outputting a corrected value of the displacement; and adding the corrected value and the displacement of the moving mechanism to calculate a measurement value.