mhurhangee/patent-ind-claim-en huggingface dataset:
A microwave heating device comprising: a heating chamber for accommodating a heating-target object; a microwave generating unit for generating microwaves; and a waveguide structure antenna having a ceiling surface and side wall surfaces defining a waveguide structure section having a rectangular cross section, and a front opening , the waveguide structure antenna emitting the microwaves from the front opening into the heating chamber , wherein the waveguide structure antenna further includes a coupling part joined to the ceiling surface to couple the microwaves into an internal space of the waveguide structure section , the waveguide structure section includes at least one microwave extraction opening formed on the ceiling surface to emit circularly polarized waves from the microwave extraction opening into the heating chamber , the at least one microwave extraction opening includes at least a pair of microwave extraction openings that is symmetrical with respect to the pipe axis (V) of the waveguide structure section , wherein the pipe axis (V) is the center line of the waveguide structure section which passes through the center of a cross section of the waveguide structure section and extends in microwave transmission direction, and the waveguide structure section has a flat area between the pair of microwave extraction openings , characterized in that the shortest distance (L1) between the pair of microwave extraction openings falls within a range from 1/8 to 1/4 of the width (L2) of the waveguide structure section . a heating chamber for accommodating a heating-target object; a microwave generating unit for generating microwaves; and a waveguide structure antenna having a ceiling surface and side wall surfaces defining a waveguide structure section having a rectangular cross section, and a front opening , the waveguide structure antenna emitting the microwaves from the front opening into the heating chamber , wherein the waveguide structure antenna further includes a coupling part joined to the ceiling surface to couple the microwaves into an internal space of the waveguide structure section , the waveguide structure section includes at least one microwave extraction opening formed on the ceiling surface to emit circularly polarized waves from the microwave extraction opening into the heating chamber , the at least one microwave extraction opening includes at least a pair of microwave extraction openings that is symmetrical with respect to the pipe axis (V) of the waveguide structure section , wherein the pipe axis (V) is the center line of the waveguide structure section which passes through the center of a cross section of the waveguide structure section and extends in microwave transmission direction, and the waveguide structure section has a flat area between the pair of microwave extraction openings , characterized in that the shortest distance (L1) between the pair of microwave extraction openings falls within a range from 1/8 to 1/4 of the width (L2) of the waveguide structure section .
A probe set for in situ hybridization that enables detection of individual mRNA molecules in fixed, permeabilized cells, comprising at least 30 non-overlapping nucleic acid hybridization probes singly labelled with the same first fluorophore label of a first color, wherein the probes have sequences complementary to different probe binding regions of a target sequence of an individual mRNA molecule, wherein said probes are 7-30 nucleotides in length.
Pallet gripper for gripping a pallet with a structure , in particular with a machine vice , and for depositing the pallet on a clamping system (6-9) which is actuated by a drive medium, in particular pneumatically or hydraulically, with a) a robot flange for mounting the pallet gripper on a robot, which moves the pallet gripper with the pallet and places it on the clamping system (6-9), and b) a gripping device (19-22, 24, 25) attached to the robot flange for gripping the pallet , characterized by c) a docking unit integrated in the pallet gripper for docking with the clamping system (6-9) in order to supply the clamping system (6-9) in the docked state from the pallet gripper with the drive medium required for clamping. a) a robot flange for mounting the pallet gripper on a robot, which moves the pallet gripper with the pallet and places it on the clamping system (6-9), and b) a gripping device (19-22, 24, 25) attached to the robot flange for gripping the pallet , characterized by c) a docking unit integrated in the pallet gripper for docking with the clamping system (6-9) in order to supply the clamping system (6-9) in the docked state from the pallet gripper with the drive medium required for clamping.
Mechanical connection for panels having the following characteristics: a) The panels have a horizontal connection and a vertical connection at their edge sides to be connected with one another, wherein the panel to be laid first engages below the second panel to be laid subsequently for the horizonal locking, and wherein for the vertical locking is disposed on the first panel a locking edge and on the second panel a tongue , which can be displaced behind the locking edge ; b) The tongue has a foot disposed in a holding groove and a head protruding at least partially out of the holding groove , which head is connected in articulated manner with the foot , characterised in that the head has a locking arm , pointing to the top side of the second panel , for pivoting behind the locking edge and a lever , pointing to the bottom side of the second panel , for pivoting the locking arm , wherein the head is connected with the foot in a region between locking arm and lever and wherein a free lower end of the lever prior to the laying of the second panel is at a distance from the second panel and a free upper end of the locking arm is in contact with the second panel ; c) and in that the first panel has a guiding surface , with which the lever can be brought into engagement when laying, in order to pivot the lever in the direction of the second panel about the joint and by means of the lever to displace the upper end of the locking arm away from the second panel behind the locking edge . a) The panels have a horizontal connection and a vertical connection at their edge sides to be connected with one another, wherein the panel to be laid first engages below the second panel to be laid subsequently for the horizonal locking, and wherein for the vertical locking is disposed on the first panel a locking edge and on the second panel a tongue , which can be displaced behind the locking edge ; b) The tongue has a foot disposed in a holding groove and a head protruding at least partially out of the holding groove , which head is connected in articulated manner with the foot , characterised in that the head has a locking arm , pointing to the top side of the second panel , for pivoting behind the locking edge and a lever , pointing to the bottom side of the second panel , for pivoting the locking arm , wherein the head is connected with the foot in a region between locking arm and lever and wherein a free lower end of the lever prior to the laying of the second panel is at a distance from the second panel and a free upper end of the locking arm is in contact with the second panel ; c) and in that the first panel has a guiding surface , with which the lever can be brought into engagement when laying, in order to pivot the lever in the direction of the second panel about the joint and by means of the lever to displace the upper end of the locking arm away from the second panel behind the locking edge .
Method for determining a time offset measurement value, which indicates the time offset between a first measurement value, which has been detected using a measurement device arranged at a first location in an electrical line or an electrical network, and at least one second measurement value, which has been identified using at least one measurement device arranged at a second location in the electrical line or the electrical network, wherein - a first measurement vector ( U A ) is identified as the first measurement value and a second measurement vector ( U B ) is identified as the second measurement value, - a line-based phase difference value, which, in the case of synchronous measurement vector measuring, describes the line-based phase offset (φ U,AB ) between the first and second measurement vector, and a measurement-device-based phase difference value (φ F ), which, in the event of asynchronous measurement vector determination by the measurement devices , is based on a time offset between the measurement vectors, are determined with the first and second measurement vector using a line model that describes the line section or network section between the first and second location and the time offset measurement value is formed by the measurement-device-based phase difference value (φ F ) alone or using the measurement-device-based phase difference value (φ F ); and wherein the line model is described by a mesh equation of an electrical mesh delimited by the first and second location or at least also comprises a mesh of this kind, characterized in that - a cost function ( ƒ ( φ Opt )), which is based on the mesh equation and has a phase offset between the measurement vectors as a function parameter, is reduced and - the optimum function parameter value ( φ Opt ) that leads to the occurrence of the minimum value of the cost function is considered to be the measurement-device-based phase difference value. - a first measurement vector ( U A ) is identified as the first measurement value and a second measurement vector ( U B ) is identified as the second measurement value, - a line-based phase difference value, which, in the case of synchronous measurement vector measuring, describes the line-based phase offset (φ U,AB ) between the first and second measurement vector, and a measurement-device-based phase difference value (φ F ), which, in the event of asynchronous measurement vector determination by the measurement devices , is based on a time offset between the measurement vectors, are determined with the first and second measurement vector using a line model that describes the line section or network section between the first and second location and - a cost function ( ƒ ( φ Opt )), which is based on the mesh equation and has a phase offset between the measurement vectors as a function parameter, is reduced and - the optimum function parameter value ( φ Opt ) that leads to the occurrence of the minimum value of the cost function is considered to be the measurement-device-based phase difference value.
A device for bending material, the device comprising a mould and a holder for supporting the mould , the mould comprising a first and a second mould half , which in each case extend in a longitudinal direction of the device and which together enclose a mould cavity extending in the longitudinal direction, wherein the first mould half comprises a set of parallel first elements , each comprising a first extension and an outer wall , and the second mould half comprises a set of parallel second elements, which each comprise a second extension and an outer wall, wherein the first and second elements extend in a transverse direction of the device and are arranged alternatingly in longitudinal direction, and wherein the first elements are arranged at a first distance from each other to receive said second extension of the second elements between them and the second elements are arranged at a second distance from each other to receive said first extension of the first elements between them, wherein said outer walls of the first elements of the first mould half together form the first outer wall of the first mould half and said outer walls of the second elements of the second mould half together form the second outer wall of the second mould half , wherein the first and the second mould halves are arranged moveably in said transverse direction on the holder, such that they can be shifted relative to each other, to adjust the width of the mould cavity, wherein the device further comprises adjusting means for adjusting the width of the mould cavity, characterised in that the adjusting means comprise a plurality of adjusting slats , wherein the adjusting slats are arranged movably in the longitudinal direction or in the height direction on the holder at the level of the outer wall of at least one of the mould halves , wherein the adjusting slats are carried out such that by means of displacement of a number of the adjusting slats , each time one of the adjusting slats forms a stop for the corresponding outer wall of the corresponding mould half , and in that the adjusting means comprise gripping means for gripping and moving a number of the adjusting slats (20, 21 and as such adjust the position of the stop.
A method performed by a user equipment, LTE, comprising: determining a candidate resource set that is initialized to a set of all candidate resources; determining a sidelink resource set based on excluding a candidate resource from the candidate resource set; and performing a sidelink operation based on the sidelink resource set, wherein the candidate resource is excluded from the candidate resource set based on sidelink control information, SCI, assumed to be received in a first time unit being related to one or more resource blocks and one or more time units which overlap with a second time unit, wherein an index of the first time unit satisfies m+(resource reservation interval), wherein an index of the second time unit satisfies Y+P rsvp_TX *j, wherein * represents multiplication, wherein the resource reservation interval is related to a resource reservation interval informed by SCI which the UE receives in a specific time unit and the m is an index of the specific time unit, wherein the Y is an index of a time unit for the candidate resource, wherein the P rsvp_TX is related to a resource reservation interval of the UE, wherein the j is an integer belonging to a range from 0 to C resel -1, and wherein the C resel is a number of time units in a set of time and frequency resources for transmission opportunities of physical sidelink shared channel, PSSCH. determining a candidate resource set that is initialized to a set of all candidate resources; determining a sidelink resource set based on excluding a candidate resource from the candidate resource set; and performing a sidelink operation based on the sidelink resource set, wherein the candidate resource is excluded from the candidate resource set based on sidelink control information, SCI, assumed to be received in a first time unit being related to one or more resource blocks and one or more time units which overlap with a second time unit, wherein an index of the first time unit satisfies m+(resource reservation interval), wherein an index of the second time unit satisfies Y+P rsvp_TX *j, wherein * represents multiplication, wherein the resource reservation interval is related to a resource reservation interval informed by SCI which the UE receives in a specific time unit and the m is an index of the specific time unit, wherein the Y is an index of a time unit for the candidate resource, wherein the P rsvp_TX is related to a resource reservation interval of the UE, wherein the j is an integer belonging to a range from 0 to C resel -1, and wherein the C resel is a number of time units in a set of time and frequency resources for transmission opportunities of physical sidelink shared channel, PSSCH.
Drinking straw with a tube base body which is made of or consists of glass, wherein at least the inside of the tube base body is at least partially covered a hydrophobic coating , wherein the glass tube body is hydrophobized, preferably silanized, at least at the portions covered by the hydrophobic coating , wherein the coating additionally contains an antibacterial agent .
A method for protecting data contained in a security module of a telecommunication device equipped with a near field communication router , wherein each modification, upon request of the security module, of a routing table, in order to open a channel between gates of said router is dependent on a verification, by the security module, of an authentication code (PIN) keyed in by a user, in order to avoid a diversion of the channel.
A steel sheet, consisting of, as chemical composition, by mass%: C: 0.05% to 0.40%, Si: 0.05% to 3.00%, Mn: 1.50% or more and less than 3.50%, P: 0.04% or less, S: 0.01% or less, N: 0.01% or less, O: 0.006% or less, Al: 0.001% to 2.00%, Cr: 0% to 1.00%, Mo: 0% to 1.00%, Ni: 0% to 1.00%, Cu: 0% to 1.00% Nb: 0% to 0.30%, Ti: 0% to 0.30%, V: 0% to 0.50% B: 0% to 0.01% Ca: 0% to 0.04%, Mg: 0% to 0.04%, REM: 0% to 0.04%, and a remainder consisting of Fe and impurities, wherein a structure at a thickness 1/4 portion includes, in terms of volume ratios, tempered martensite: 70% or more and one or both of ferrite and bainite: a total of less than 20%, wherein in the structure at the thickness 1/4 portion, a volume ratio of residual austenite is less than 10%, a volume ratio of fresh martensite is 10% or less, a volume ratio of pearlite is 10% or less, and a total volume ratio of the residual austenite, the fresh martensite, and the pearlite is 15% or less, wherein a number density of iron-based carbides having a major axis of 5 nm or more in the tempered martensite at the thickness 1/4 portion is 5×10 7 particles/mm 2 or more, wherein a ratio of the number of ε-type carbides with respect to the number of the iron-based carbides having the major axis of 5 nm or more at the thickness 1/4 portion is 20% or more, and wherein a tensile strength is 780 MPa or higher. C: 0.05% to 0.40%, Si: 0.05% to 3.00%, Mn: 1.50% or more and less than 3.50%, P: 0.04% or less, S: 0.01% or less, N: 0.01% or less, O: 0.006% or less, Al: 0.001% to 2.00%, Cr: 0% to 1.00%, Mo: 0% to 1.00%, Ni: 0% to 1.00%, Cu: 0% to 1.00% Nb: 0% to 0.30%, Ti: 0% to 0.30%, V: 0% to 0.50% B: 0% to 0.01% Ca: 0% to 0.04%, Mg: 0% to 0.04%, REM: 0% to 0.04%, and a remainder consisting of Fe and impurities, wherein a structure at a thickness 1/4 portion includes, in terms of volume ratios, tempered martensite: 70% or more and one or both of ferrite and bainite: a total of less than 20%, wherein in the structure at the thickness 1/4 portion, a volume ratio of residual austenite is less than 10%, a volume ratio of fresh martensite is 10% or less, a volume ratio of pearlite is 10% or less, and a total volume ratio of the residual austenite, the fresh martensite, and the pearlite is 15% or less, wherein a number density of iron-based carbides having a major axis of 5 nm or more in the tempered martensite at the thickness 1/4 portion is 5×10 7 particles/mm 2 or more, wherein a ratio of the number of ε-type carbides with respect to the number of the iron-based carbides having the major axis of 5 nm or more at the thickness 1/4 portion is 20% or more, and wherein a tensile strength is 780 MPa or higher.
A device for actuating elevator doors, comprising movement means for moving the car door , which are supported by the car of the elevator, and at least one coupling device for coupling between the car door and the floor doors , which is adapted to pass on command from an inactive condition to an active condition, in which it is adapted to render mutually integral the car door and the floor door that corresponds to the stopping floor of the car , said movement means comprising at least one first flexible element for motion transmission which is functionally connected to the car door and is extended between first guiding wheels , of which at least one is motorized wherein said coupling device can be actuated between said inactive condition and said active condition by means of a second flexible motion transmission element characterized in that said second flexible motion transmission element is extended between second guiding wheels .
A circular multicore optical fiber , comprising: a glass matrix having a front endface , a back endface , a length, a refractive index n 20 , and a central axis; at least 4 cores arranged within the glass matrix , wherein any two adjacent cores have a core center to core center spacing of less than 29 microns, wherein the cores are positioned generally parallel to the central axis between the front and back endfaces and having respective refractive indices n 50 , wherein n 50 > n 20 , wherein each core and the glass matrix define a waveguide; and a plurality of trench layers, wherein each trench layer is positioned between a corresponding core and the glass matrix , each trench layer having an outer radius (r 3 ) of less than or equal to 14 microns and a trench volume of greater than 50 %Δ micron 2 ; wherein the optical fiber has a mode field diameter of greater than about 8.2 microns at 1310 nm, wherein the optical fiber has an outer diameter of less than about 130 microns, and characterized in that the center of each core is positioned along a first diameter of the glass matrix. a glass matrix having a front endface , a back endface , a length, a refractive index n 20 , and a central axis; at least 4 cores arranged within the glass matrix , wherein any two adjacent cores have a core center to core center spacing of less than 29 microns, wherein the cores are positioned generally parallel to the central axis between the front and back endfaces and having respective refractive indices n 50 , wherein n 50 > n 20 , wherein each core and the glass matrix define a waveguide; and a plurality of trench layers, wherein each trench layer is positioned between a corresponding core and the glass matrix , each trench layer having an outer radius (r 3 ) of less than or equal to 14 microns and a trench volume of greater than 50 %Δ micron 2 ; wherein the optical fiber has a mode field diameter of greater than about 8.2 microns at 1310 nm, wherein the optical fiber has an outer diameter of less than about 130 microns, and characterized in that the center of each core is positioned along a first diameter of the glass matrix.
Control method for an electric motor as a drive motor of a bicycle , the control method comprising the following steps • detection of a rotational speed of a component of the drive train of the bicycle and/or • detection of a pitch angle (α) of the bicycle , • identification of a gradient of a route for the bicycle in dependence on the detected rotational speed and/or the detected pitch angle (α), and • identification of a deactivation of a pushing aid of the bicycle or an activation of a holding function of the bicycle , the following step being subsequently carried out: • generation of a motor torque by means of the electric motor to assist holding of the bicycle by a user in dependence on the identified deactivation of the pushing aid or the identified activation of the holding function and in dependence on the identified gradient of the route , characterized in that the identification of a deactivation of the pushing aid or the activation of a holding function takes place by detection of an input by the user. • detection of a rotational speed of a component of the drive train of the bicycle and/or • detection of a pitch angle (α) of the bicycle , • identification of a gradient of a route for the bicycle in dependence on the detected rotational speed and/or the detected pitch angle (α), and • identification of a deactivation of a pushing aid of the bicycle or an activation of a holding function of the bicycle , • generation of a motor torque by means of the electric motor to assist holding of the bicycle by a user in dependence on the identified deactivation of the pushing aid or the identified activation of the holding function and in dependence on the identified gradient of the route , characterized in that the identification of a deactivation of the pushing aid or the activation of a holding function takes place by detection of an input by the user.