mhurhangee/patent-ind-claim-en huggingface dataset:
Bed, with a head section (3, 3.1) extending over the lying surface (2, 2.1) in a vertical direction, and with two pivotable panel elements (6, 6.1) configured to be sound-absorbing, wherein at least one acoustic panel (5, 5.1, 5.2, 5.3) is arranged at the head section (3, 3.1) in the direction towards its flat first extension, and which comprises the two panel elements (6, 6.1), which can be pivoted out of a position in the plane of the head section in which they are not used, into a position of use, which is at an angle to the plane of the head section (3, 3.1), the panel elements (6, 6.1) of which, with regard to their pivot direction, can be pivoted in relation to a back section which is fixed in position between the two panel elements (6, 6.1), wherein the pivot axes (11, 11.1) of the two panel elements (6, 6.1), connected to the back section by a joint, are spaced apart from one another at a distance interval in the direction of the width of the head piece , and the width of the back section is configured so that, when the two panel elements (6, 6.1) pivot out with their outer sides towards one another into their position when in use, they exhibit a slight distance interval from one another or are just in contact with one another.
A method for wireless communication, comprising: communicating at a first time, by a user equipment, UE, with a first network node via a primary component carrier, PCC, and a second network node via a secondary CC, SCC, wherein the second network node is remotely located with respect to the first network node and the SCC is only used for downlink communication, wherein data is sent with hybrid automatic retransmission, HARQ, on the PCC and without HARQ on the SCC; switching, communication, by the UE, from the second network node to a third network node via the SCC at a second time, wherein the third network node is remotely located with respect to the second network node and the first network node and maintaining communication with the first network node via the PCC without triggering handover at the UE during the establishing communication with the third network node. communicating at a first time, by a user equipment, UE, with a first network node via a primary component carrier, PCC, and a second network node via a secondary CC, SCC, wherein the second network node is remotely located with respect to the first network node and the SCC is only used for downlink communication, wherein data is sent with hybrid automatic retransmission, HARQ, on the PCC and without HARQ on the SCC; switching, communication, by the UE, from the second network node to a third network node via the SCC at a second time, wherein the third network node is remotely located with respect to the second network node and the first network node and maintaining communication with the first network node via the PCC without triggering handover at the UE during the establishing communication with the third network node.
Expansion joint strip for permanent, automatic sealing of joints between or in structures and/or parts thereof a. comprising a resilient plastics-like material, b. which extends continuously along its central longitudinal axis (X), c. the expansion joint strip comprises two weatherstrips which extend along the central longitudinal axis (X) in a strand-like manner, wherein d. each weatherstrip is designed having two longitudinal sides which taper towards one another in cross-section and are intended for forming a corner region that is opposite an outside of the weatherstrip that can be set against a steel reinforcement , e. the corner regions of the weatherstrips are interconnected in a transition region , characterised in that f. the expansion joint strip is arranged in a mounting bracket for aligning the expansion joint strip, g. the mounting bracket comprises a U-shaped bracket which comprises two limb arms , connected by a portion bracket , for receiving the expansion joint strips , which limb arms transition, at their free ends, into leg pairs , h. the leg pairs each comprise two standing legs which are of the same length and are spread apart from one another in the lower region facing away from the portion bracket , the insides of the standing legs , facing one another, are drawn in, forming, for example partially circular, recesses for receiving rods , such as reinforcing rods of ferro-concrete, i. spacers for centring the received expansion joint strips and/or expansion joint strip connection means are moulded onto the insides of the limb arms that face one another. a. comprising a resilient plastics-like material, b. which extends continuously along its central longitudinal axis (X), c. the expansion joint strip comprises two weatherstrips which extend along the central longitudinal axis (X) in a strand-like manner, wherein d. each weatherstrip is designed having two longitudinal sides which taper towards one another in cross-section and are intended for forming a corner region that is opposite an outside of the weatherstrip that can be set against a steel reinforcement , e. the corner regions of the weatherstrips are interconnected in a transition region , characterised in that f. the expansion joint strip is arranged in a mounting bracket for aligning the expansion joint strip, g. the mounting bracket comprises a U-shaped bracket which comprises two limb arms , connected by a portion bracket , for receiving the expansion joint strips , which limb arms transition, at their free ends, into leg pairs , h. the leg pairs each comprise two standing legs which are of the same length and are spread apart from one another in the lower region facing away from the portion bracket , the insides of the standing legs , facing one another, are drawn in, forming, for example partially circular, recesses for receiving rods , such as reinforcing rods of ferro-concrete, i. spacers for centring the received expansion joint strips and/or expansion joint strip connection means are moulded onto the insides of the limb arms that face one another.
An inertial sensor , comprising: - a first proof mass configured to oscillate along a sensing axis (X); - a first tuning electrode and a second tuning electrode forming first and, respectively, second capacitors with the first proof mass , the capacitances of which undergo opposite variations with the oscillation of the first proof mass along the sensing axis (X); - a second proof mass configured to oscillate along the sensing axis (X); - a third tuning electrode and a fourth tuning electrode forming third and, respectively, fourth capacitors with the second proof mass , the capacitances of which undergo opposite variations with the oscillation of the second proof mass along the sensing axis (X); - a driving assembly coupled to the first and second proof masses , configured to cause an antiphase oscillation of the first and second proof mass at a resonance frequency along the sensing axis (X); - a biasing circuit configured to bias, in a first time interval, the first tuning electrode and the third tuning electrode to generate an electrostatic field which causes a first variation of said resonance frequency; and configured to bias, in a second time interval, the second tuning electrode and the fourth tuning electrode to generate an electrostatic field which causes a second variation of said resonance frequency; and - a sensing assembly , configured to generate an output signal which is a function of a difference between a value of the resonance frequency during the first time interval and a value of the resonance frequency during the second time interval. - a first proof mass configured to oscillate along a sensing axis (X); - a first tuning electrode and a second tuning electrode forming first and, respectively, second capacitors with the first proof mass , the capacitances of which undergo opposite variations with the oscillation of the first proof mass along the sensing axis (X); - a second proof mass configured to oscillate along the sensing axis (X); - a third tuning electrode and a fourth tuning electrode forming third and, respectively, fourth capacitors with the second proof mass , the capacitances of which undergo opposite variations with the oscillation of the second proof mass along the sensing axis (X); - a driving assembly coupled to the first and second proof masses , configured to cause an antiphase oscillation of the first and second proof mass at a resonance frequency along the sensing axis (X); - a biasing circuit configured to bias, in a first time interval, the first tuning electrode and the third tuning electrode to generate an electrostatic field which causes a first variation of said resonance frequency; and configured to bias, in a second time interval, the second tuning electrode and the fourth tuning electrode to generate an electrostatic field which causes a second variation of said resonance frequency; and - a sensing assembly , configured to generate an output signal which is a function of a difference between a value of the resonance frequency during the first time interval and a value of the resonance frequency during the second time interval.
Method for decoding an LDPC code represented by a Tanner graph comprising N variable nodes and M control nodes, each control node being associated with a parity constraint relating to a plurality of variable nodes, said decoding method operating on an observable ( y ) representing the word to be decoded and proceeding by successive iterations, each iteration operating on an estimated word ( x ) and, if the estimated word is not a code word, determining a set ( F̃ ) of the least reliable bits of this word in order to be flipped before the following iteration, the least reliable bits of the estimated word being determined as those where the value of a local energy function ( Ẽ n ) is less than a threshold value, the local energy function of a bit comprising a first component proportional to the correlation between this bit and a corresponding element of the observable, a second component representing the number of non-satisfied constraints in which said bit is involved, said method being characterised in that the local energy function further comprises a third component, referred to as an inertial component, decreasing with the number (l n ) of iterations performed since the last flipping of this bit.
A method for improving signal quality, comprising: at a sending end, distributing a scrambled optical transport unit frame signal onto multiple signals transmitted on corresponding virtual lanes in unit of frame, and multiplexing the signals transmitted on the virtual lanes to obtain signals transmitted on corresponding physical lanes; at a receiving end, demultiplexing the signals signal transmitted on the physical lanes to obtain the signals transmitted on each corresponding virtual lane, and rearranging the signals signal transmitted on the virtual lanes to restore the optical transport unit frame signal; collecting (S1) a statistic of an error correction bit rate of data bits of a signal corresponding to each virtual lane during forward error correction FEC decoding; calculating (S2) a pre-correction bit error rate of each physical lane corresponding to each virtual lane according to the error correction bit rate of the data bits of the signal corresponding to each virtual lane; feeding (S3) back the pre-correction bit error rate of each physical lane to an optical module, wherein the optical module is at the receiving end; and adjusting (S4), by the optical module, a receiving parameter of each physical lane to reduce the pre-correction bit error rate of each physical lane. at a sending end, distributing a scrambled optical transport unit frame signal onto multiple signals transmitted on corresponding virtual lanes in unit of frame, and multiplexing the signals transmitted on the virtual lanes to obtain signals transmitted on corresponding physical lanes; at a receiving end, demultiplexing the signals signal transmitted on the physical lanes to obtain the signals transmitted on each corresponding virtual lane, and rearranging the signals signal transmitted on the virtual lanes to restore the optical transport unit frame signal; collecting (S1) a statistic of an error correction bit rate of data bits of a signal corresponding to each virtual lane during forward error correction FEC decoding; calculating (S2) a pre-correction bit error rate of each physical lane corresponding to each virtual lane according to the error correction bit rate of the data bits of the signal corresponding to each virtual lane; feeding (S3) back the pre-correction bit error rate of each physical lane to an optical module, wherein the optical module is at the receiving end; and adjusting (S4), by the optical module, a receiving parameter of each physical lane to reduce the pre-correction bit error rate of each physical lane.
A method of communication comprising the steps of: in a fabric of network elements including a first network element and a second network element , the second network element having or having access to a memory and a pool of objects in the memory; initiating a request in the first network element for a remote direct memory access to the memory; transmitting the request through the fabric to the second network element; accessing a designated member of the pool by: placing the request in a wait queue for the pool of objects; and serving the request if there is no other request ahead in the wait queue that is directed to the same area of the object pool, whereby the request is atomically executed; and returning a result of the execution of the request through the fabric to the first network element. in a fabric of network elements including a first network element and a second network element , the second network element having or having access to a memory and a pool of objects in the memory; initiating a request in the first network element for a remote direct memory access to the memory; transmitting the request through the fabric to the second network element; accessing a designated member of the pool by: placing the request in a wait queue for the pool of objects; and serving the request if there is no other request ahead in the wait queue that is directed to the same area of the object pool, whereby the request is atomically executed; and returning a result of the execution of the request through the fabric to the first network element.
A method of manufacturing a heterocycle-containing polymer precursor using dicarboxylic acid or dicarboxylic acid derivative and diamine as raw materials, comprising: halogenating the dicarboxylic acid or the dicarboxylic acid derivative by using a halogenating agent and performing reaction with diamine; and adjusting a difference between a molar amount of the halogenating agent and a molar amount of water included in a reaction system before reaction of the halogenating agent to become 2.10 times or less of a total molar amount of the dicarboxylic acid and the dicarboxylic acid derivative as the raw materials. halogenating the dicarboxylic acid or the dicarboxylic acid derivative by using a halogenating agent and performing reaction with diamine; and adjusting a difference between a molar amount of the halogenating agent and a molar amount of water included in a reaction system before reaction of the halogenating agent to become 2.10 times or less of a total molar amount of the dicarboxylic acid and the dicarboxylic acid derivative as the raw materials.
A system for use in a subsea well application , comprising: a monobore subsea installation having: a tubing head spool disposed above a wellhead ; a tubing hanger engaged with the tubing head spool ; a subsea tree coupled to the tubing head spool over the tubing hanger and forming a plenum region between the tubing hanger and the subsea tree ; characterized in that: the plenum region has a gallery area comprising components that are protected from the annulus flow of well fluids by at least one annulus stab extending between the tubing hanger and the subsea tree which provides an isolated path within the at least one annulus stab and through the plenum region, the isolated path further being routed through the tubing hanger until exiting out through a side of the tubing hanger to the tubing head spool to accommodate an annulus flow path along the monobore subsea installation . a monobore subsea installation having: a tubing head spool disposed above a wellhead ; a tubing hanger engaged with the tubing head spool ; a subsea tree coupled to the tubing head spool over the tubing hanger and forming a plenum region between the tubing hanger and a tubing head spool disposed above a wellhead ; a tubing hanger engaged with the tubing head spool ; a subsea tree coupled to the tubing head spool over the tubing hanger and forming a plenum region between the tubing hanger and the subsea tree ; characterized in that: the plenum region has a gallery area comprising components that are protected from the annulus flow of well fluids by at least one annulus stab extending between the tubing hanger and the subsea tree which provides an isolated path within the at least one annulus stab and through the plenum region, the isolated path further being routed through the tubing hanger until exiting out through a side of the tubing hanger to the tubing head spool to accommodate an annulus flow path along the monobore subsea installation .
An ambulance stretcher , which comprises: ∘ a support frame for supporting a patient; ∘ a pair of front legs , each having a front wheel ; ∘ a pair of rear legs , each having a rear wheel ; ∘ an actuation arrangement provided with a front actuator , which moves the pair of front legs and which interconnects the support frame and the pair of front legs , and a rear actuator , which moves the pair of rear legs and which connects the support frame and the pair of rear legs ; and ∘ a front coupling body connected to a front end of the support frame ; ∘ a control unit of the coupling body provided with at least a first sensor (S10) connected to the coupling body and configured to detect a correct positioning of the coupling body in a respective support coupling of an automatic loading/unloading apparatus of an ambulance (V), and at least a second sensor (S11) connected to the coupling body and configured to detect a load bearing on the coupling body ; ∘ at least one release arrangement arranged at the front end of the support frame and configured to operate a release between the coupling body and the support coupling of the loading/unloading apparatus of an ambulance (V); and ∘ an electronic control unit operatively connected to the actuation arrangement, to the release arrangement and to the control unit and configured to actuate one of the actuation arrangement and the release arrangement as a function of a signal received from at least one of the first sensor (S10) and the second sensor (S11) of the control unit. ∘ a support frame for supporting a patient; ∘ a pair of front legs , each having a front wheel ; ∘ a pair of rear legs , each having a rear wheel ; ∘ an actuation arrangement provided with a front actuator , which moves the pair of front legs and which interconnects the support frame and the pair of front legs , and a rear actuator , which moves the pair of rear legs and which connects the support frame and the pair of rear legs ; and ∘ a front coupling body connected to a front end of the support frame ; ∘ a control unit of the coupling body provided with at least a first sensor (S10) connected to the coupling body and configured to detect a correct positioning of the coupling body in a respective support coupling of an automatic loading/unloading apparatus of an ambulance (V), and at least a second sensor (S11) connected to the coupling body and configured to detect a load bearing on the coupling body ; ∘ at least one release arrangement arranged at the front end of the support frame and configured to operate a release between the coupling body and the support coupling of the loading/unloading apparatus of an ambulance (V); and ∘ an electronic control unit operatively connected to the actuation arrangement, to the release arrangement and to the control unit and configured to actuate one of the actuation arrangement and the release arrangement as a function of a signal received from at least one of the first sensor (S10) and the second sensor (S11) of the control unit.
Device for preparing baby milk , comprising - a means for providing water (W), in particular tap water, which comprises a first container (1.1), - a heating device , in particular a water heater, which is connected to the means for providing water (W), in particular tap water, via at least one pipe , - a cooling device , in particular a once-through cooler, which is connected to the heating device , in particular connected to the water heater via a line , - a container in which a solid and water-soluble food (P), in particular water-soluble milk powder, can be stored, - a device for receiving a vessel , in particular a baby drinking bottle, which on the one hand with the cooling device , in particular with the continuous cooler, by means of a line and on the other hand with a container by means of a it is connected to a line (15.1, 15.2) in which a volume-controlled metering device for the metered introduction of the solid and water-soluble food (P), in particular water-soluble milk powder, into the container , in particular into the baby drinking bottle, is connected, wherein between the lines a first pump , in particular a volume-controlled metering pump, for the metered introduction of the water (W), in particular tap water, stored in the first container (1.1) into the heating device , in particular in the instantaneous water heater, is arranged via the line , characterized in that the first pump, in particular volume-controlled metering pump, is a peristaltic pump with at least two operating modes (DP, SP), a first operating mode (DP) a volume-controlled pump function and a second operating mode (SP) comprises a volume-controlled or time-controlled suction function. - a means for providing water (W), in particular tap water, which comprises a first container (1.1), - a heating device , in particular a water heater, which is connected to the means for providing water (W), in particular tap water, via at least one pipe , - a cooling device , in particular a once-through cooler, which is connected to the heating device , in particular connected to the water heater via a line , - a container in which a solid and water-soluble food (P), in particular water-soluble milk powder, can be stored, - a device for receiving a vessel , in particular a baby drinking bottle, which on the one hand with the cooling device , in particular with the continuous cooler, by means of a line and on the other hand with a container by means of a it is connected to a line (15.1, 15.2) in which a volume-controlled metering device for the metered introduction of the solid and water-soluble food (P), in particular water-soluble milk powder, into the container , in particular into the baby drinking bottle, is connected, wherein between the lines a first pump , in particular a volume-controlled metering pump, for the metered introduction of the water (W), in particular tap water, stored in the first container (1.1) into the heating device , in particular in the instantaneous water heater, is arranged via the line ,