mhurhangee/patent-ind-claim-en huggingface dataset:
Opening device for a package having a designated pour opening covered with a separation membrane and filled with a pourable product; the opening device comprises at least: - a collar delimiting a flow channel extending between an inlet opening of the collar configured to allow for an inflow of the pourable product into the flow channel and a pouring outlet of the collar configured to allow for an outflow of the pourable product from the flow channel ; and - a cutter configured to break the separation membrane and being at least partially arranged within the flow channel ; wherein the collar comprises an inner surface facing the flow channel ; wherein the opening device further comprises a retaining device configured to block movement of the cutter out of the flow channel and through the pouring outlet ; wherein the retaining device comprises a retaining group protruding from the inner surface of the collar and an interaction group connected to the cutter ; wherein the retaining group and the interaction group are configured to interact with one another so as to block movement of the cutter out of the flow channel and through the pouring outlet ; characterized that the retaining group comprises one or more hollow retaining elements . the opening device comprises at least: - a collar delimiting a flow channel extending between an inlet opening of the collar configured to allow for an inflow of the pourable product into the flow channel and a pouring outlet of the collar configured to allow for an outflow of the pourable product from the flow channel ; and - a cutter configured to break the separation membrane and being at least partially arranged within the flow channel ; - a collar delimiting a flow channel extending between an inlet opening of the collar configured to allow for an inflow of the pourable product into the flow channel and a pouring outlet of the collar configured to allow for an outflow of the pourable product from the flow channel ; and - a cutter configured to break the separation membrane and being at least partially arranged within the flow channel ; wherein the collar comprises an inner surface facing the flow channel ; wherein the opening device further comprises a retaining device configured to block movement of the cutter out of the flow channel and through the pouring outlet ; wherein the retaining device comprises a retaining group protruding from the inner surface of the collar and an interaction group connected to the cutter ; wherein the retaining group and the interaction group are configured to interact with one another so as to block movement of the cutter out of the flow channel and through the pouring outlet ; characterized that the retaining group comprises one or more hollow retaining elements .
A wearable device (105; 600) for sleep assistance, comprising: at least one sensor to detect one or several vital signs of a user of the wearable device; a memory to store a set of sleep aid techniques, each aid sleep technique includes instructions facilitating the user to fall asleep and is associated with a doze-off time estimated for the sleep aid technique to affect the user following the instructions; an interface to receive a selection of a sleep aid technique from the set of sleep aid techniques and to render the instructions of the selected sleep aid technique to the user; and a processor to update the doze-off time based on the vital signs of the user, to determine, based on the updated doze-off time, a schedule for executing at least one predetermined action, and to execute the predetermined action according to the schedule. at least one sensor to detect one or several vital signs of a user of the wearable device; a memory to store a set of sleep aid techniques, each aid sleep technique includes instructions facilitating the user to fall asleep and is associated with a doze-off time estimated for the sleep aid technique to affect the user following the instructions; an interface to receive a selection of a sleep aid technique from the set of sleep aid techniques and to render the instructions of the selected sleep aid technique to the user; and a processor to update the doze-off time based on the vital signs of the user, to determine, based on the updated doze-off time, a schedule for executing at least one predetermined action, and to execute the predetermined action according to the schedule.
A PAC1 receptor agonist, said agonist comprising: a targeting sequence that binds to the PAC1 receptor attached to a peptide that activates PAC1 signaling, wherein: said targeting sequence comprises a maxadilan peptide where the amino acid sequence of said maxadilan peptide consists of the amino acid sequence PGNSVFKECMKQKKKEFKAGK (SEQ ID NO:4); and said peptide that activates PAC1 signaling consists of the amino acid sequence of PACAP 1-38 or a fragment thereof, effective to activate PAC1 signaling, wherein said PACAP 1-38 or fragment comprises the amino acid sequence HSDGIF (SEQ ID NO: 130), and optionally comprises: an amino acid insertion between residues 11 and 12 of said PACAP 1-38 wherein said insertion is a serine or a threonine; or an R to A mutation at residue 12 of said PACP peptide or an R to K mutation at residue 12 of said PACP peptide; or a K to A mutation at residue 15 of said PACP peptide. a targeting sequence that binds to the PAC1 receptor attached to a peptide that activates PAC1 signaling, wherein: said targeting sequence comprises a maxadilan peptide where the amino acid sequence of said maxadilan peptide consists of the amino acid sequence PGNSVFKECMKQKKKEFKAGK (SEQ ID NO:4); and said peptide that activates PAC1 signaling consists of the amino acid sequence of PACAP 1-38 or a fragment thereof, effective to activate PAC1 signaling, wherein said PACAP 1-38 or fragment comprises the amino acid sequence HSDGIF (SEQ ID NO: 130), and optionally comprises: said targeting sequence comprises a maxadilan peptide where the amino acid sequence of said maxadilan peptide consists of the amino acid sequence PGNSVFKECMKQKKKEFKAGK (SEQ ID NO:4); and said peptide that activates PAC1 signaling consists of the amino acid sequence of PACAP 1-38 or a fragment thereof, effective to activate PAC1 signaling, wherein said PACAP 1-38 or fragment comprises the amino acid sequence HSDGIF (SEQ ID NO: 130), and optionally comprises: an amino acid insertion between residues 11 and 12 of said PACAP 1-38 wherein said insertion is a serine or a threonine; or an R to A mutation at residue 12 of said PACP peptide or an R to K mutation at residue 12 of said PACP peptide; or a K to A mutation at residue 15 of said PACP peptide.
Liquid mixture constituted of 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and of niacinamide compound chosen from niacinamide, N,N-diethylniacinamide, N-picolylniacinamide, and N-allylniacinamide.
A heavy-duty pneumatic tire comprising: a pair of beads ; and a carcass extending on and between one of the beads and another bead , wherein each bead includes a core , an apex located radially outward of the core , and a cover enclosing at least a part of the core , the carcass includes a carcass ply including a large number of aligned carcass cords and further including a carcass topping rubber covering the carcass cords , each carcass cord is a steel cord, the carcass ply is turned up around the core from an inner side to an outer side in an axial direction, the cover is located, between the core and the carcass ply , in a portion at which the carcass ply encloses the core , the cover is composed of one cover ply including a large number of aligned cover cords and further including a cover topping rubber covering the cover cords , each cover cord is a cord formed from an organic fiber, and a difference between a hardness (Hv) of the cover topping rubber and a hardness (Ht) of the carcass topping rubber is not less than -5 and not greater than 5, characterized in that a ratio of a distance (W) between the cover cords to an outer diameter (d) of each carcass cord is not lower than 0.35 and not higher than 0.85, and the hardness (Hv) of the cover topping rubber is lower than the hardness (Ht) of the carcass topping rubber . a pair of beads ; and a carcass extending on and between one of the beads and another bead , wherein each bead includes a core , an apex located radially outward of the core , and a cover enclosing at least a part of the core , the carcass includes a carcass ply including a large number of aligned carcass cords and further including a carcass topping rubber covering the carcass cords , each carcass cord is a steel cord, the carcass ply is turned up around the core from an inner side to an outer side in an axial direction, the cover is located, between the core and the carcass ply , in a portion at which the carcass ply encloses the core , the cover is composed of one cover ply including a large number of aligned cover cords and further including a cover topping rubber covering the cover cords , each cover cord is a cord formed from an organic fiber, and a difference between a hardness (Hv) of the cover topping rubber and a hardness (Ht) of the carcass topping rubber is not less than -5 and not greater than 5, characterized in that a ratio of a distance (W) between the cover cords to an outer diameter (d) of each carcass cord is not lower than 0.35 and not higher than 0.85, and the hardness (Hv) of the cover topping rubber is lower than the hardness (Ht) of the carcass topping rubber .
A shock absorber comprising a damper, wherein the damper comprises a cylinder , a piston assembly arranged in said cylinder , wherein the piston assembly divides the cylinder into a compression damper chamber and a rebound spring chamber , wherein the shock absorber comprises a pneumatic spring in fluid connection with the compression damper chamber , wherein the piston assembly is movable within the cylinder between an outer position and an inner position, wherein the damper comprises a valve assembly for throttling fluid flow between the compression damper chamber and the pneumatic spring , wherein the valve assembly extends from an inner end portion of the damper into the compression damper chamber , wherein the piston assembly comprises an inner space which is open to the compression damper chamber and characterized in that the inner space configured to receive and sealingly engage a distal portion of the valve assembly at an inner operational range of stroke and to disengage the valve assembly upon movement outside the inner operational range of stroke , and wherein the sealing engagement between the distal portion of the valve assembly and the inner space divides the compression damper chamber into an inner volume within the inner space and an outer volume in front of the piston assembly , wherein the valve assembly is provided with a first fluid passage through the valve assembly , said first fluid passage being configured to allow fluid communication between the inner volume and the pneumatic spring . wherein the damper comprises a cylinder , a piston assembly arranged in said cylinder , wherein the piston assembly divides the cylinder into a compression damper chamber and a rebound spring chamber , wherein the shock absorber comprises a pneumatic spring in fluid connection with the compression damper chamber , wherein the piston assembly is movable within the cylinder between an outer position and an inner position, wherein the damper comprises a valve assembly for throttling fluid flow between the compression damper chamber and the pneumatic spring , wherein the valve assembly extends from an inner end portion of the damper into the compression damper chamber , wherein the piston assembly comprises an inner space which is open to the compression damper chamber and characterized in that the inner space configured to receive and sealingly engage a distal portion of the valve assembly at an inner operational range of stroke and to disengage the valve assembly upon movement outside the inner operational range of stroke , and wherein the sealing engagement between the distal portion of the valve assembly and the inner space divides the compression damper chamber into an inner volume within the inner space and an outer volume in front of the piston assembly , wherein the valve assembly is provided with a first fluid passage through the valve assembly , said first fluid passage being configured to allow fluid communication between the inner volume and the pneumatic spring .
A mixed-phase oxide for use as an active electrode material; wherein the mixed-phase oxide comprises Nb and Ti and further comprises M(III) and/or M(II); wherein M(III) is selected from Cr, Al, Ga, and mixtures thereof; M(II) is selected from Zn, Cu, Mg, and mixtures thereof; wherein the mixed-phase oxide comprises an interpenetrating mixture of a first phase and a second phase; wherein the first phase has the crystal structure of TiNb 2 O 7 and the second phase has the crystal structure of Zn 2 Nb 34 O 87 . wherein the mixed-phase oxide comprises Nb and Ti and further comprises M(III) and/or M(II); wherein M(III) is selected from Cr, Al, Ga, and mixtures thereof; M(II) is selected from Zn, Cu, Mg, and mixtures thereof; wherein the mixed-phase oxide comprises an interpenetrating mixture of a first phase and a second phase; wherein the first phase has the crystal structure of TiNb 2 O 7 and the second phase has the crystal structure of Zn 2 Nb 34 O 87 .
Method for the manufacture a wheel rim with a rim base made of fibre-reinforced composite, characterised in that during the manufacture of the rim base a connecting element is joined to the rim base , where the connecting element is designed and arranged in such a way that a wheel disc can be connected to the connecting element .
A carbon fiber recycling device, adapted to recycle a first carbon fiber from a carbon fiber polymer composite , the carbon fiber recycling device comprising: at least one first microwave supplying unit and a cavity ; wherein the cavity has a second long axis direction (XA); wherein the carbon fiber recycling device further contains a carbon fiber polymer composite to be recycled disposed in an interior of the cavity , wherein the carbon fiber polymer composite to be recycled comprises a polymer matrix and the first carbon fiber , wherein the polymer matrix is coupled to the first carbon fiber and the first carbon fiber defines a first long axis direction (X), wherein the first microwave supplying unit is configured to generate a first microwave (M1) that is propagated along a first microwave direction (M11) to the interior of the cavity ; characterized in that the first microwave (M1) of the first microwave supplying unit is adjustable to change an angle between a first electric field direction (E11) of the electric field (E1) of the first microwave (M1) and the second long axis direction (XA) of the cavity to make the first long axis direction (X) of the first carbon fiber being parallel to the first electric field direction (E11). at least one first microwave supplying unit and a cavity ; wherein the cavity has a second long axis direction (XA); wherein the carbon fiber recycling device further contains a carbon fiber polymer composite to be recycled disposed in an interior of the cavity , wherein the carbon fiber polymer composite to be recycled comprises a polymer matrix and the first carbon fiber , wherein the polymer matrix is coupled to the first carbon fiber and the first carbon fiber defines a first long axis direction (X), wherein the first microwave supplying unit is configured to generate a first microwave (M1) that is propagated along a first microwave direction (M11) to the interior of the cavity ; characterized in that the first microwave (M1) of the first microwave supplying unit is adjustable to change an angle between a first electric field direction (E11) of the electric field (E1) of the first microwave (M1) and the second long axis direction (XA) of the cavity to make the first long axis direction (X) of the first carbon fiber being parallel to the first electric field direction (E11).
An impact diverting mechanism mountable to a helmet having a rigid outer shell , comprising: a bottom layer mountable to an outer surface of the rigid outer shell ; and a top layer , disposed adjacent to and mechanically connected to the bottom layer around the perimeter, the top layer having an impact surface disposed distal to the bottom layer , wherein the top layer and the bottom layer are able to move relative to each other, and wherein the impact surface is either planar or non-planar; wherein the top layer and the bottom layer are configured such that the top layer is shiftable relative to the bottom layer and the outer surface of the rigid outer shell ; wherein the bottom layer is mountable to the outer surface of the rigid outer shell using an adhesive; and wherein the shift of the top layer relative to the bottom layer diverts and dissipates kinetic energy resulting from the parallel component of the vector of an oblique impact force acting at an impact point on the impact surface of the top layer , thereby reducing rotational acceleration of the helmet . a bottom layer mountable to an outer surface of the rigid outer shell ; and a top layer , disposed adjacent to and mechanically connected to the bottom layer around the perimeter, the top layer having an impact surface disposed distal to the bottom layer , wherein the top layer and the bottom layer are able to move relative to each other, and wherein the impact surface is either planar or non-planar; wherein the top layer and the bottom layer are configured such that the top layer is shiftable relative to the bottom layer and the outer surface of the rigid outer shell ; wherein the bottom layer is mountable to the outer surface of the rigid outer shell using an adhesive; and wherein the shift of the top layer relative to the bottom layer diverts and dissipates kinetic energy resulting from the parallel component of the vector of an oblique impact force acting at an impact point on the impact surface of the top layer , thereby reducing rotational acceleration of the helmet .
An Ethernet-based cascading conference phone device, comprising a master conference phone (CP0) and a slave conference phone (CP1); the master conference phone (CP0), configured to receive at least one network data packet through an Ethernet, obtain a real-time stream signal according to the at least one network data packet, play the real-time stream signal after a delay, send the real-time stream signal to the slave conference phone (CP1) periodically send at least one synchronized broadcast packet to the slave conference phone (CP1) receives a real-time stream signal sent by the slave conference phone (CP1) select a master signal from the real-time stream signal sent by the slave conference phone (CP1), obtain at least one network data packet according to the master signal and send the at least one network data packet through the Ethernet; and the slave conference phone (CP1), configured to receive the at least one synchronized broadcast packet, receive the real-time stream signal sent by the master conference phone (CP0) calculates a master-slave clock offset according to the at least one synchronized broadcast packet, perform linear compensation on the real-time stream signal sent by the master conference phone (CP0) according to the master-slave clock offset to obtain a compensation real-time stream signal, play the compensation real-time stream signal and send the real-time stream signal to the master conference phone (CP0). the master conference phone (CP0), configured to receive at least one network data packet through an Ethernet, obtain a real-time stream signal according to the at least one network data packet, play the real-time stream signal after a delay, send the real-time stream signal to the slave conference phone (CP1) periodically send at least one synchronized broadcast packet to the slave conference phone (CP1) receives a real-time stream signal sent by the slave conference phone (CP1) select a master signal from the real-time stream signal sent by the slave conference phone (CP1), obtain at least one network data packet according to the master signal and send the at least one network data packet through the Ethernet; and the slave conference phone (CP1), configured to receive the at least one synchronized broadcast packet, receive the real-time stream signal sent by the master conference phone (CP0) calculates a master-slave clock offset according to the at least one synchronized broadcast packet, perform linear compensation on the real-time stream signal sent by the master conference phone (CP0) according to the master-slave clock offset to obtain a compensation real-time stream signal, play the compensation real-time stream signal and send the real-time stream signal to the master conference phone (CP0).
Arrangement for fitting and wiring electronic components in switchgear engineering, wherein the arrangement has a robot with an end effector in the form of a gripper , a mounting plate holding device with which a mounting plate is held in a mounting position in relation to the robot , and a component feed in the access region of the robot , via which components to be mounted on the mounting plate are provided for removal by the robot , wherein a controller of the robot has machine data for controlling the robot , including position data for the arrangement of components on a mounting plane (E) of a mounting plate to be fitted, wherein the robot has an optical imaging system which is configured to detect an alignment of a mounting plate in relation to the robot , wherein the controller of the robot is configured to provide the position data with an offset representing the alignment of the mounting plate in relation to the robot depending on the detected alignment, characterized in that the optical imaging system has a stereo camera , the two optical axes (x) of which are arranged at an acute angle to the gripper , wherein a distal gripper end lies in the imaging region of the optical imaging system and the optical imaging system is configured to determine an alignment of a cable end , preferably a core end sleeve of the cable end , in relation to the gripper .
A terminal comprising: a receiving section adapted to receive a Physical Downlink Control Channel, PDCCH; and a control section adapted to, when low latency beam selection is configured by higher layer signaling, assume that a same spatial domain filter is used for transmission of the PDCCH, transmission of a Physical Downlink Shared Channel, PDSCH, and reception of a Physical Uplink Control Channel, PUCCH, wherein the control section is adapted to assume, when low latency beam selection is configured by higher layer signaling, that a downlink spatial domain reception filter used for reception of the PDCCH in a control resource set, CORESET, is same as a downlink spatial domain reception filter corresponding to a transmitted latest measurement result in order to perform PDCCH reception processing, and wherein the low latency beam selection is a beam selection in which the terminal is not notified of a new transmission configuration indicator, TCI, state for the PDCCH. a receiving section adapted to receive a Physical Downlink Control Channel, PDCCH; and a control section adapted to, when low latency beam selection is configured by higher layer signaling, assume that a same spatial domain filter is used for transmission of the PDCCH, transmission of a Physical Downlink Shared Channel, PDSCH, and reception of a Physical Uplink Control Channel, PUCCH, wherein the control section is adapted to assume, when low latency beam selection is configured by higher layer signaling, that a downlink spatial domain reception filter used for reception of the PDCCH in a control resource set, CORESET, is same as a downlink spatial domain reception filter corresponding to a transmitted latest measurement result in order to perform PDCCH reception processing, and wherein the low latency beam selection is a beam selection in which the terminal is not notified of a new transmission configuration indicator, TCI, state for the PDCCH.