mhurhangee/patent-ind-claim-en huggingface dataset:
An autonomously navigating vehicle equipped with a chassis , a cover , and a suspension mechanism interposed between the chassis and the cover through a lock member (12b1) at one end, and having at least an attachment shaft attached to the chassis at another end, wherein the vehicle runs on drive wheels attached to the chassis , characterized in that : the suspension mechanism comprises: a tube member that is movably attached to the attachment shaft and includes an outer peripheral surface of approximately hemispherical shape; a first attachment shaft retaining member having an inside surface (12a11) of approximately hemispherical shape surface in side view and provided on the chassis to swingably retain the attachment shaft with the outer peripheral surface of the tube member abutted on the inside surface (12a11); a shaft lower end portion of approximately slip surface shape provided at a lowermost part of the attachment shaft ; a second attachment shaft retaining member (12a2) provided on the chassis below the first attachment shaft retaining member and having an inside surface formed by a vertex equivalent section (12a21) of approximately conical shape and a slope equivalent section (12a22) continuous with the vertex equivalent section (12a21) to retain the attachment shaft with the shaft lower end portion abutted onto at least one of the vertex equivalent section (12a21) and the slope equivalent section (12a22); and a biasing member elastically interposed between the tube member and the shaft lower end portion to bias the tube member and the shaft lower end portion away from each other. a tube member that is movably attached to the attachment shaft and includes an outer peripheral surface of approximately hemispherical shape; a first attachment shaft retaining member having an inside surface (12a11) of approximately hemispherical shape surface in side view and provided on the chassis to swingably retain the attachment shaft with the outer peripheral surface of the tube member abutted on the inside surface (12a11); a shaft lower end portion of approximately slip surface shape provided at a lowermost part of the attachment shaft ; a second attachment shaft retaining member (12a2) provided on the chassis below the first attachment shaft retaining member and having an inside surface formed by a vertex equivalent section (12a21) of approximately conical shape and a slope equivalent section (12a22) continuous with the vertex equivalent section (12a21) to retain the attachment shaft with the shaft lower end portion abutted onto at least one of the vertex equivalent section (12a21) and the slope equivalent section (12a22); and a biasing member elastically interposed between the tube member and the shaft lower end portion to bias the tube member and the shaft lower end portion away from each other.
A pyrolysis apparatus comprising: a pyrolysis unit having a pyrolysis region and a gas exit passage; a first gas enclosure coupled to the gas exit passage such that the gaseous mixture can be directed from the pyrolysis unit to the first gas enclosure ; a heating system adapted to heat the first gas enclosure to temperature sufficient for the gaseous mixture to undergo a pyrolysis process, wherein the first gas enclosure is adapted to cause the gaseous mixture to follow helical or spiral gas path therein. a pyrolysis unit having a pyrolysis region and a gas exit passage; a first gas enclosure coupled to the gas exit passage such that the gaseous mixture can be directed from the pyrolysis unit to the first gas enclosure ; a heating system adapted to heat the first gas enclosure to temperature sufficient for the gaseous mixture to undergo a pyrolysis process, wherein the first gas enclosure is adapted to cause the gaseous mixture to follow helical or spiral gas path therein.
A femoral base plate assembly comprising: a plate having a bone contacting surface configured to approximate a topography of an exterior of a femur , the plate including a first plurality of orifices angled with respect to the bone contacting surface and configured to orient a respective fastener in a predetermined angular orientation, the plate including a second plurality of orifices , at least one of the first plurality of orifices being threaded, where each of the orifices extending through the bone contacting surface and through a top surface opposite the bone contacting surface; and a stem mounted to the plate via a distal adapter , the stem also including a proximal coupling configured to engage an inertial measurement unit . a plate having a bone contacting surface configured to approximate a topography of an exterior of a femur , the plate including a first plurality of orifices angled with respect to the bone contacting surface and configured to orient a respective fastener in a predetermined angular orientation, the plate including a second plurality of orifices , at least one of the first plurality of orifices being threaded, where each of the orifices extending through the bone contacting surface and through a top surface opposite the bone contacting surface; and a stem mounted to the plate via a distal adapter , the stem also including a proximal coupling configured to engage an inertial measurement unit .
A method performed by a serving cell , comprising: transmitting/receiving signals to/from a plurality of user equipments, UEs, ; and transmitting at least one subframe for a physical downlink control channel, PDCCH, formed in accordance with a first Downlink Control Information, DCI, format, the first DCI format indicating a transmission state of the serving cell , wherein the plurality of UEs monitor the PDCCH of the serving cell when the serving cell is in a first transmission state, and wherein the plurality of UEs refrain from monitoring the PDCCH of the serving cell when the serving cell is in a second transmission state; providing, while in the first transmission state, a scheduling assignment for at least one UE of the plurality of UEs , wherein the first DCI format is transmitted in at least one subframe of a respective modification period of a plurality of modification periods , and wherein the transmission state of the serving cell indicated by the first DCI format transmitted in the at least one subframe of the respective modification period of the plurality of modification periods is independent of that of a transmission state of other serving cells indicated by the first DCI format; and transmitting higher layer signaling specifying the at least one subframe in which the UE monitors the first DCI format. transmitting/receiving signals to/from a plurality of user equipments, UEs, ; and transmitting at least one subframe for a physical downlink control channel, PDCCH, formed in accordance with a first Downlink Control Information, DCI, format, the first DCI format indicating a transmission state of the serving cell , wherein the plurality of UEs monitor the PDCCH of the serving cell when the serving cell is in a first transmission state, and wherein the plurality of UEs refrain from monitoring the PDCCH of the serving cell when the serving cell is in a second transmission state; providing, while in the first transmission state, a scheduling assignment for at least one UE of the plurality of UEs , wherein the first DCI format is transmitted in at least one subframe of a respective modification period of a plurality of modification periods , and wherein the transmission state of the serving cell indicated by the first DCI format transmitted in the at least one subframe of the respective modification period of the plurality of modification periods is independent of that of a transmission state of other serving cells indicated by the first DCI format; and wherein the first DCI format is transmitted in at least one subframe of a respective modification period of a plurality of modification periods , and wherein the transmission state of the serving cell indicated by the first DCI format transmitted in the at least one subframe of the respective modification period of the plurality of modification periods is independent of that of a transmission state of other serving cells indicated by the first DCI format; and transmitting higher layer signaling specifying the at least one subframe in which the UE monitors the first DCI format.
A method for estimating a maximum safe articulation angle (Φ lim ) to be used in reversing of a vehicle combination comprising a towing vehicle and at least one trailer , said method comprising: (S1) providing a preset maximum safe articulation angle (Φ lim ) for the towing vehicle or the vehicle combination , (S2) receiving a signal being indicative of an articulation angle (Φ) of the vehicle combination during forward driving of the vehicle combination , and (S3) updating the maximum safe articulation angle (Φ lim ) when the articulation angle (Φ) of the vehicle combination during forward driving is larger than the preset maximum safe articulation angle (Φ lim ), characterized in that the method further comprises, (S4) updating the maximum safe articulation angle (Φ lim ) when it has been determined that a jack-knifing condition (J) has occurred, whereby the updated maximum safe articulation angle (Φ lim ) corresponds to an articulation angle (Φ) which occurred prior to the determined jack-knifing condition (J). (S1) providing a preset maximum safe articulation angle (Φ lim ) for the towing vehicle or the vehicle combination , (S2) receiving a signal being indicative of an articulation angle (Φ) of the vehicle combination during forward driving of the vehicle combination , and (S3) updating the maximum safe articulation angle (Φ lim ) when the articulation angle (Φ) of the vehicle combination during forward driving is larger than the preset maximum safe articulation angle (Φ lim ), characterized in that the method further comprises, (S4) updating the maximum safe articulation angle (Φ lim ) when it has been determined that a jack-knifing condition (J) has occurred, whereby the updated maximum safe articulation angle (Φ lim ) corresponds to an articulation angle (Φ) which occurred prior to the determined jack-knifing condition (J).
Method for assisting the driving of a vehicle (VA) comprising analysis means (MAL) analysing the environment in at least one zone located in front of said vehicle (VA) in order to detect at least lane delimitations and traffic signs and to deliver environment data representative of said detected traffic signs and delimitations and control means (MCT) controlling its driving in an automated manner on a traffic lane (VC, SVj) defined by delimitations as a function of said environment data, characterised in that it comprises a step in which i) said environment data is analysed in order to determine a variation in speed limitation correlated temporally to a variation in a number of traffic lanes and ii) in the presence of such a determination, it is considered that the said vehicle (VA) is located in the vicinity of at least one compulsory passage zone (ZPj) and at least one alert is generated, requiring either that a driver of the said vehicle (VA) regain control of the driving of the latter (VA) during the crossing of this compulsory passage zone (ZPj) or that the said control means (MCT) implement an automated driving strategy specific to the crossing of this compulsory passage zone (ZPj), characterised in that in the said step a variation in speed limit correlated temporally to a variation in the number of traffic lanes is determined when the latter occurs in the middle of a reduction in the speed limit or in an interval of predefined distances after a last speed limit sign.
A communication method, characterized by comprising: receiving (S101), by a base station, capability information from a terminal, wherein the capability information comprises: information about a capability of the terminal to sequentially monitor multiple beams; wherein the capability of the terminal to sequentially monitor multiple beams is beam switching capability of the terminal, and the beam switching capability indicates the terminal can implement beam switching on each symbol; generating (S102), by the base station, beam configuration information based on the capability information of the terminal, wherein the beam configuration information comprises beam indication information and beam monitoring information; and sending (S104), by the base station, the beam configuration information to the terminal. receiving (S101), by a base station, capability information from a terminal, wherein the capability information comprises: information about a capability of the terminal to sequentially monitor multiple beams; wherein the capability of the terminal to sequentially monitor multiple beams is beam switching capability of the terminal, and the beam switching capability indicates the terminal can implement beam switching on each symbol; generating (S102), by the base station, beam configuration information based on the capability information of the terminal, wherein the beam configuration information comprises beam indication information and beam monitoring information; and sending (S104), by the base station, the beam configuration information to the terminal.
A method for manufacturing a part, the method comprising: removing a porous material from a sheet to create a plurality of individual layer segments , with a computer numerical control (CNC) router ; forming a plurality of layers with the individual layer segments ; securing the layers together to form a part with a shape having a hollow interior; infusing the porous material of the part with a catalyzed thermoset material that is compatible with the porosity of the porous material; and removing material from an exterior of the part , with the CNC router, to form a part having a continuous surface and a hollow interior. removing a porous material from a sheet to create a plurality of individual layer segments , with a computer numerical control (CNC) router ; forming a plurality of layers with the individual layer segments ; securing the layers together to form a part with a shape having a hollow interior; infusing the porous material of the part with a catalyzed thermoset material that is compatible with the porosity of the porous material; and removing material from an exterior of the part , with the CNC router, to form a part having a continuous surface and a hollow interior.
Binding device for a baling press , comprising a needle link arm which is adjustable relative to a frame of the baling press and has a plurality of binding needles for feeding a binding medium strand into a pressing channel , wherein, by means of a plurality of guide elements (17-19, 20-23, 31, 41) for each binding medium strand , the binding device defines a guide path starting from a binding medium roller , wherein each binding needle extends from a base to a tip on which a first needle guide element is arranged, and wherein the needle link arm can be adjusted by an insertion movement from a first position, in which the binding needles are arranged outside the pressing channel , into a second position, in which the binding needles are at least partially inserted into the pressing channel , and can be adjusted back into the first position by a return movement, and the binding device further comprising an additional guide element which is independent of the needle link arm and downstream of which the first needle guide element is arranged in the guide path, characterized in that the needle link arm has a second needle guide element which is arranged closer to the base than the first needle guide element and is interposed in the guide path between the additional guide element and the first needle guide element , wherein the second needle guide element approaches the additional guide element as a result of the insertion movement and moves away from it as a result of the return movement.
Retention device for at least one cooling tube of a cooling system of a turbomachine casing , the casing extending around an axial direction (X) of the turbomachine, the retention device comprising a fixing plate suited to being made integral with the casing and a retention element for the cooling tube , said retention device being characterised in that it comprises an adjustment means configured to adjust the relative position of said retention element with respect to said fixing plate and to absorb a relative movement between the retention element and the fixing plate .
Method for determining the amount of fuel required during a refueling process at an H 2 -Filling station to a hydrogen-powered vehicle , comprising the steps of: - initiating a refueling process of the hydrogen-powered vehicle by means of a control unit of the H 2 -Filling station , - detecting at least one measured value for determining a quantity of hydrogen dispensed during the refueling process by means of a first sensor at a first position within the H 2 -Filling station , - detecting at least one measured value for determining a quantity of hydrogen dispensed during the refueling process by means of a further sensor at a second position different from the first, - determining the amount of hydrogen actually delivered to the hydrogen-powered vehicle on the basis of a correlation of the amounts of hydrogen determined by means of the first sensor and the amounts of hydrogen determined by means of the further sensor , characterized in that determining of the actual quantity of hydrogen dispensed is carried out on the basis of a correlation of the quantities of hydrogen determined by means of the first sensor and the quantities of hydrogen determined by means of the further sensor via the use of a look-up table , wherein the look-up table comprises a data tuple of at least one measured value recorded by means of the first sensor and a measured value for a delivered quantity of hydrogen recorded by means of the further sensor , wherein the measured values recorded by means of the first and further sensors are each assigned a measured value which indicates the actual quantity of hydrogen delivered to a hydrogen-powered vehicle . - initiating a refueling process of the hydrogen-powered vehicle by means of a control unit of the H 2 -Filling station , - detecting at least one measured value for determining a quantity of hydrogen dispensed during the refueling process by means of a first sensor at a first position within the H 2 -Filling station , - detecting at least one measured value for determining a quantity of hydrogen dispensed during the refueling process by means of a further sensor at a second position different from the first, - determining the amount of hydrogen actually delivered to the hydrogen-powered vehicle on the basis of a correlation of the amounts of hydrogen determined by means of the first sensor and the amounts of hydrogen determined by means of the further sensor ,
A method of forming a package or bag, including the steps of: providing a sheet of web or film in a machine direction; placing a reclosure segment on the sheet of web or film in a transverse direction; wrapping the sheet of web or film around the forming device , thereby bringing together first and second edges of the sheet of web or film; crushing at least a first end of the reclosure segment thereby forming a first crushed area , the first crushed area immediately inwardly adjacent from the first edge ; and sealing the first and second edges of the sheet of web or film to each other. providing a sheet of web or film in a machine direction; placing a reclosure segment on the sheet of web or film in a transverse direction; wrapping the sheet of web or film around the forming device , thereby bringing together first and second edges of the sheet of web or film; crushing at least a first end of the reclosure segment thereby forming a first crushed area , the first crushed area immediately inwardly adjacent from the first edge ; and sealing the first and second edges of the sheet of web or film to each other.
An apparatus comprising: a first wavelength-selective switch configured to receive a first WDM signal and to switch optical channels of the first WDM signal based on their respective optical-channel-utilization factors such that a first set of optical channels of the first WDM signal is directed through a first branch and a second set of the optical channels of the first WDM signal is directed through a second branch, wherein the first set of optical channels includes one or more optical channels whose optical-channel-utilization factor is smaller than a threshold value, and the second set of optical channels includes one or more optical channels whose optical-channel-utilization factor is greater than the threshold value; the first branch configured to electrically switch payload units corresponding to the first set of optical channels to generate a third set of optical channels , wherein the third set of optical channels has fewer optical channels than the first set of optical channels; the second branch configured to optically switch the one or more optical channels of the second set of optical channels to generate a fourth set of optical channels ; and a second wavelength-selective switch configured to receive the third set of optical channels from the first branch and the fourth set of optical channels from the second branch and further configured to combine the third set of optical channels and the fourth set of optical channels to generate a second WDM signal . a first wavelength-selective switch configured to receive a first WDM signal and to switch optical channels of the first WDM signal based on their respective optical-channel-utilization factors such that a first set of optical channels of the first WDM signal is directed through a first branch and a second set of the optical channels of the first WDM signal is directed through a second branch, wherein the first set of optical channels includes one or more optical channels whose optical-channel-utilization factor is smaller than a threshold value, and the second set of optical channels includes one or more optical channels whose optical-channel-utilization factor is greater than the threshold value; the first branch configured to electrically switch payload units corresponding to the first set of optical channels to generate a third set of optical channels , wherein the third set of optical channels has fewer optical channels than the first set of optical channels; the second branch configured to optically switch the one or more optical channels of the second set of optical channels to generate a fourth set of optical channels ; and a second wavelength-selective switch configured to receive the third set of optical channels from the first branch and the fourth set of optical channels from the second branch and further configured to combine the third set of optical channels and the fourth set of optical channels to generate a second WDM signal .
A method for a leakage test of a test piece located in a test chamber , wherein the test chamber is an evacuable flexible test chamber for a leakage test of a test piece having a wall surrounding a test chamber volume , wherein at least a portion of said wall is made up of two layers of wall material of which at least the layer facing the test chamber volume is made from a flexible material, between the two layers an overpressure as compared to the atmosphere surrounding the test chamber is adapted to be created and an overpressure between the layers is created before the chamber is closed, characterized in that a check as to whether a test piece is in the test chamber is performed by monitoring the pressure between the two layers when the test chamber is being closed.