mhurhangee/patent-ind-claim-en huggingface dataset:
A circuitry comprising: a sensor configured to detect an electrical signal indicating whether a low-noise amplifier in an antenna front end is active or not active, wherein the sensor measures the current drawn from the antenna front end ; and one or more processors, configured to send an operational mode switching signal to control the antenna front end to activate or deactivate the low-noise amplifier in the antenna front end ; and control the antenna front end to receive or transmit data depending on the indication of the detected electrical signal. a sensor configured to detect an electrical signal indicating whether a low-noise amplifier in an antenna front end is active or not active, wherein the sensor measures the current drawn from the antenna front end ; and one or more processors, configured to send an operational mode switching signal to control the antenna front end to activate or deactivate the low-noise amplifier in the antenna front end ; and control the antenna front end to receive or transmit data depending on the indication of the detected electrical signal. send an operational mode switching signal to control the antenna front end to activate or deactivate the low-noise amplifier in the antenna front end ; and control the antenna front end to receive or transmit data depending on the indication of the detected electrical signal.
A method for modifying a small form factor pluggable, SFP, transceiver , the method comprising: removing a cover from the SFP transceiver ; separating a printed circuit board, PCB, of the SFP transceiver from a metal base of the SFP transceiver ; soldering a multiplicity of metal pins to a multiplicity of contact pads on the PCB , the metal pins being held in spaced-apart relationship by a pin holder ; depositing non-conductive moisture sealant on the contact pads after soldering; forming a feed-through hole in a bottom of the metal base ; seating the PCB on the metal base while also seating the pin holder in the feed-through hole ; placing a different cover over the PCB , preferably wherein the different cover is made of a material that provides protection to the PCB against electromagnetic interference; and attaching the different cover to the metal base . removing a cover from the SFP transceiver ; separating a printed circuit board, PCB, of the SFP transceiver from a metal base of the SFP transceiver ; soldering a multiplicity of metal pins to a multiplicity of contact pads on the PCB , the metal pins being held in spaced-apart relationship by a pin holder ; depositing non-conductive moisture sealant on the contact pads after soldering; forming a feed-through hole in a bottom of the metal base ; seating the PCB on the metal base while also seating the pin holder in the feed-through hole ; placing a different cover over the PCB , preferably wherein the different cover is made of a material that provides protection to the PCB against electromagnetic interference; and attaching the different cover to the metal base .
Rotary machine comprising a stator having a stator casing , and a rotor shaft having a rotational axis (X-X) and supported in said stator casing by at least one radial magnetic bearing , the rotary machine comprising an axial mechanical thrust bearing at the vicinity of a radial surface of one end of the rotor shaft , said axial mechanical thrust bearing comprising a rolling element located on the rotational axis (X-X) of the rotor shaft , characterized in that the axial mechanical thrust bearing is arranged between a lower end portion of the stator casing and the lower end of the rotor shaft and supports the rotor weight and in that the rolling element is radially surrounded by an annular cylindrical protuberance of the stator casing , extending towards the lower end of the rotor shaft , a radial airgap (Δ2) being defined between said annular cylindrical protuberance and the rolling element .
Salt of bis(fluorosulfonyl)imide containing from 0.01 ppm in weight to 10000 ppm in weight in weight of a halogenated alcohol, wherein it is represented by the formula (I): [ (FSO 2 ) 2 N - ] n M n+ (I) wherein M n+ represents the ammonium cation NH 4 + or an alkali metal cation, and n is 1 representing the valence of the cation M, and wherein said salt of bis(fluorosulfonyl)imide is in the form of a solid crystallized compound.
A program comprising instructions which, when the program is executed by a computer, cause the computer to execute a process for adjusting a difference between a first environment map A and a second environment map B ; wherein the first environment map A is created based on a feature point of an image in first time-series images captured by a vehicle-mounted camera and positioning information of the vehicle-mounted camera , and the second environment map B is created based on a feature point of an image in second time-series images captured separately from the first time-series images by a vehicle-mounted camera and positioning information of the vehicle-mounted camera , the process comprising: acquiring a feature point of an image in third time-series images captured separately from the first and second time-series images by a vehicle-mounted camera , the program characterized in that the process further comprises: estimating a position and orientation A of the feature point of the image in third time-series images based on the first environment map A , estimating a position and orientation B of the feature point of the image in third time-series images based on the second environment map B , obtaining a positional difference based on comparing the two positions and orientations A and B of the feature point of the image in third time-series images, calculating an adjustment value based on the positional difference for adjusting a position error between the first environment map A and the second environment map B , and correcting the first environment map A or the second environment map B by using the calculated adjustment value . for adjusting a difference between a first environment map A and a second environment map B ; wherein the first environment map A is created based on a feature point of an image in first time-series images captured by a vehicle-mounted camera and positioning information of the vehicle-mounted camera , and the second environment map B is created based on a feature point of an image in second time-series images captured separately from the first time-series images by a vehicle-mounted camera and positioning information of the vehicle-mounted camera , the process comprising: acquiring a feature point of an image in third time-series images captured separately from the first and second time-series images by a vehicle-mounted camera , estimating a position and orientation A of the feature point of the image in third time-series images based on the first environment map A , estimating a position and orientation B of the feature point of the image in third time-series images based on the second environment map B , obtaining a positional difference based on comparing the two positions and orientations A and B of the feature point of the image in third time-series images, calculating an adjustment value based on the positional difference for adjusting a position error between the first environment map A and the second environment map B , and correcting the first environment map A or the second environment map B by using the calculated adjustment value .
Joint for a vehicle with an outer sleeve , a joint cup for receiving a movably mounted joint inner part , and an inner sleeve which is arranged at least partially between the joint cup and the outer sleeve , the inner sleeve having two radially outwardly projecting edge cylinders which are spaced apart from one another axially and run around on the outer circumference of the inner sleeve , and the two edge cylinders define a circumferential depression in the form of a groove on the outer circumference of the inner sleeve , characterized in that a press fit device which is configured integrally with the inner sleeve extends, in the region of at least one edge cylinder of the inner sleeve , radially outwards beyond the external diameter of the edge cylinder
A method for treatment of a lignocellulosic biomass feedstock wherein the biomass feedstock is subjected to liquefaction, at a pH of at most 4, by treatment with hot compressed liquid water (HCW) at subcritical and/or supercritical conditions.
A surgical stapler , comprising: a staple cartridge comprising a cartridge body comprising a plurality of staple cavities and a plurality of staples positioned within the staple cavities; an anvil configured for a facing relationship with the cartridge body, the anvil comprising at least one staple forming surface; a first tissue thickness compensator removably attached to the anvil , wherein the first tissue thickness compensator comprises a first thickness (t 1 ), and a second tissue thickness compensator removably attached to the cartridge body , wherein the second tissue thickness compensator comprises a second thickness (t 2 ), wherein the first and second tissue thickness compensators are configured to be captured within the staples and assume different compressed heights within different staples due to different tissue heights within the different staples, and wherein the sum of the first thickness and the second thickness is at least equal to a minimum thickness which provides adequate tissue thickness compensation within the staples; characterised in that the first tissue thickness compensator is hingedly attached to the second tissue thickness compensator such that the tissue thickness compensator can be moved between a relaxed configuration and a flexed configuration and the tissue thickness compensator in its relaxed configuration defines a relaxed angle that is greater than or equal to the angle defined between the staple cartridge and the anvil . a staple cartridge comprising a cartridge body comprising a plurality of staple cavities and a plurality of staples positioned within the staple cavities; an anvil configured for a facing relationship with the cartridge body, the anvil comprising at least one staple forming surface; a first tissue thickness compensator removably attached to the anvil , wherein the first tissue thickness compensator comprises a first thickness (t 1 ), and a second tissue thickness compensator removably attached to the cartridge body , wherein the second tissue thickness compensator comprises a second thickness (t 2 ), wherein the first and second tissue thickness compensators are configured to be captured within the staples and assume different compressed heights within different staples due to different tissue heights within the different staples, and wherein the sum of the first thickness and the second thickness is at least equal to a minimum thickness which provides adequate tissue thickness compensation within the staples; characterised in that the first tissue thickness compensator is hingedly attached to the second tissue thickness compensator such that the tissue thickness compensator can be moved between a relaxed configuration and a flexed configuration and the tissue thickness compensator in its relaxed configuration defines a relaxed angle that is greater than or equal to the angle defined between the staple cartridge and the anvil .
Method for producing a thermocompensated and coloured coil spring for a watchmaking piece, said method comprising the successive steps of: a) providing a coil spring comprising a silicon core , b) forming a first layer of silicon oxide on all of the faces of the core of the coil spring , the first layer having a thickness which is equal to a fraction of the thickness required for achieving thermal compensation, c) removing the first layer of silicon oxide from one face of the core designed to be coloured as a result of the interference effect, d) forming a second layer of silicon oxide on the face of the core designed to be coloured as a result of the interference effect and on other faces of the core designed to ensure thermal compensation, the second layer of silicon oxide having a predetermined thickness for achieving thermal compensation and also giving to said face of the core intended to be colored a colour as a result of the interference effect. a) providing a coil spring comprising a silicon core , b) forming a first layer of silicon oxide on all of the faces of the core of the coil spring , the first layer having a thickness which is equal to a fraction of the thickness required for achieving thermal compensation, c) removing the first layer of silicon oxide from one face of the core designed to be coloured as a result of the interference effect, d) forming a second layer of silicon oxide on the face of the core designed to be coloured as a result of the interference effect and on other faces of the core designed to ensure thermal compensation, the second layer of silicon oxide having a predetermined thickness for achieving thermal compensation and also giving to said face of the core intended to be colored a colour as a result of the interference effect.
A method for controlling an inkjet printing machine on slabs (L), wherein the printing machine comprising: - a support for supporting a slab (L); and - a printing device that is movable above the support along a sliding direction (D) and spaced apart from it, wherein the printing device is provided with a plurality of printing groups arranged adjacent with respect to a direction of mutually adjacent arrangement (G) parallel to the sliding direction (D) and each printing group is equipped with at least one inkjet printing head , wherein each printing group is configured to release a respective monochromatic decoration on a surface (L1) of the slab (L) resting on the support , and wherein the method comprises: - determining a layered decoration to be made with the printing device on the surface (L1) of the slab (L), wherein the layered decoration is formed from the juxtaposition of a plurality of layers of monochromatic decoration; - setting an activation sequence of one or more printing groups during the sliding of the printing device along the sliding direction (D) as a function of the determined layered decoration; - making the printing device slide along the sliding direction on the slab (L) resting on the support ; - activating one or more printing groups during the sliding of the printing device along the sliding direction (D) based on the set activation sequence and on a predetermined mutual position of the printing groups along the direction of mutually adjacent arrangement. - a support for supporting a slab (L); and - a printing device that is movable above the support along a sliding direction (D) and spaced apart from it, wherein the printing device is provided with a plurality of printing groups arranged adjacent with respect to a direction of mutually adjacent arrangement (G) parallel to the sliding direction (D) and each printing group is equipped with at least one inkjet printing head , wherein each printing group is configured to release a respective monochromatic decoration on a surface (L1) of the slab (L) resting on the support , and - determining a layered decoration to be made with the printing device on the surface (L1) of the slab (L), wherein the layered decoration is formed from the juxtaposition of a plurality of layers of monochromatic decoration; - setting an activation sequence of one or more printing groups during the sliding of the printing device along the sliding direction (D) as a function of the determined layered decoration; - making the printing device slide along the sliding direction on the slab (L) resting on the support ; - activating one or more printing groups during the sliding of the printing device along the sliding direction (D) based on the set activation sequence and on a predetermined mutual position of the printing groups along the direction of mutually adjacent arrangement.
A transmission mechanism (110; 210) comprising: a planet gear (116; 216) configured to be mounted to a synchronization ring for rotation relative to the synchronization ring about a planet gear axis (C); a set of sun gear teeth (118; 218) meshed with teeth of the planet gear, wherein the set of sun gear teeth is configured to rotate and drive motion of the planet gear in a circumferential direction about an axis (D) of the set of sun gear teeth; a set of ring gear teeth meshed with the teeth of the planet gear, wherein the set of sun gear teeth and the set of ring gear teeth are spaced apart from one another; and an input shaft configured to extend in a radially outward direction with respect to the synchronization ring, the input shaft having a first end and a second end , defining an actuator axis (D) therebetween, wherein the set of sun gear teeth is defined proximate to the first end of the input shaft operatively connecting the input shaft to the planet gear; wherein the set of sun gear teeth is concentric with the input shaft. a planet gear (116; 216) configured to be mounted to a synchronization ring for rotation relative to the synchronization ring about a planet gear axis (C); a set of sun gear teeth (118; 218) meshed with teeth of the planet gear, wherein the set of sun gear teeth is configured to rotate and drive motion of the planet gear in a circumferential direction about an axis (D) of the set of sun gear teeth; a set of ring gear teeth meshed with the teeth of the planet gear, wherein the set of sun gear teeth and the set of ring gear teeth are spaced apart from one another; and an input shaft configured to extend in a radially outward direction with respect to the synchronization ring, the input shaft having a first end and a second end , defining an actuator axis (D) therebetween, wherein the set of sun gear teeth is defined proximate to the first end of the input shaft operatively connecting the input shaft to the planet gear; wherein the set of sun gear teeth is concentric with the input shaft.
A brake control system for controlling a braking operation applied to a wheel of a wheel assembly , comprising: a brake control unit configured to output a control signal to a Proportional Integral Derivative, PID, controller ; the PID controller in communication with the brake control unit, the PID controller configured to receive the control signal from the brake control unit and an adjustment signal from an antiskid brake controller and output a modified control signal; a wheel speed sensor configured to output a wheel speed signal indicative of a speed of a wheel to the antiskid brake controller; and the antiskid brake controller in communication with the PID controller and with the wheel speed sensor, the antiskid brake controller configured to receive the wheel speed signal from the wheel speed sensor and to provide the adjustment signal to the PID controller; wherein the antiskid brake controller provides the adjustment signal to the PID controller in proportion to the wheel speed signal; wherein the modified control signal is adjusted based on the control signal and the adjustment signal; and wherein a reset schedule of an integrator of the PID controller is continually reset based on the wheel speed signal; and characterized in that the adjustment signal comprises a first threshold at a first speed and a second threshold at a second speed, wherein the first speed is slower than the second speed and the first threshold is smaller than the second threshold. a brake control unit configured to output a control signal to a Proportional Integral Derivative, PID, controller ; the PID controller in communication with the brake control unit, the PID controller configured to receive the control signal from the brake control unit and an adjustment signal from an antiskid brake controller and output a modified control signal; a wheel speed sensor configured to output a wheel speed signal indicative of a speed of a wheel to the antiskid brake controller; and the antiskid brake controller in communication with the PID controller and with the wheel speed sensor, the antiskid brake controller configured to receive the wheel speed signal from the wheel speed sensor and to provide the adjustment signal to the PID controller; wherein the antiskid brake controller provides the adjustment signal to the PID controller in proportion to the wheel speed signal; wherein the modified control signal is adjusted based on the control signal and the adjustment signal; and wherein a reset schedule of an integrator of the PID controller is continually reset based on the wheel speed signal; and characterized in that the adjustment signal comprises a first threshold at a first speed and a second threshold at a second speed, wherein the first speed is slower than the second speed and the first threshold is smaller than the second threshold.
An insulated gas turbine seal seat assembly, comprising: a shaft configured and arranged to rotate about an axial axis ; a seal seat that is secured to the shaft ; and a thermal insulator configured and arranged radially between the shaft and the seal seat ; characterised in that the thermal insulator comprises a plurality of longitudinally spaced stand-offs that define a plurality of air gaps between the seal seat and the shaft . a shaft configured and arranged to rotate about an axial axis ; a seal seat that is secured to the shaft ; and a thermal insulator configured and arranged radially between the shaft and the seal seat ; characterised in that the thermal insulator comprises a plurality of longitudinally spaced stand-offs that define a plurality of air gaps between the seal seat and the shaft .