mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for separating rod-like or spherical objects, comprising a lever provided with a bore, wherein the bore is configured such that it can accommodate a rod-like or spherical object, and wherein the bore, in a first position of the lever, is arranged beneath an entry opening and, in a second position of the lever, is arranged above an exit opening, wherein the lever, in the second position, closes the entry opening, characterized in that the lever is mounted in a floating manner on the apparatus and the apparatus has a first centering means which has a centering stop and is intended for centering the bore beneath the entry opening in the first position of the lever.
A method of securing communications between first and second hosts using the Host Identity Protocol, HIP, where the first host is not HIP enabled and the second host is HIP enabled, the method is characterized in that it comprises: associating the first host with a persistent HIP identity maintained at a remote server; obtaining from the remote server to serving node a public key part of the persistent HIP identity and a certificate authorising a gateway node between the first and second hosts to use a temporary HIP identity associated with the first host in a subsequent negotiating step; and negotiating at the gateway node a secure HIP connection between the gateway node and the second host using at least a part of each of the persistent HIP identity, the temporary HIP identity and the certificate. associating the first host with a persistent HIP identity maintained at a remote server; obtaining from the remote server to serving node a public key part of the persistent HIP identity and a certificate authorising a gateway node between the first and second hosts to use a temporary HIP identity associated with the first host in a subsequent negotiating step; and negotiating at the gateway node a secure HIP connection between the gateway node and the second host using at least a part of each of the persistent HIP identity, the temporary HIP identity and the certificate.
A method for determining a precoding matrix indicator, comprising: sending a first reference signal set to user equipment, wherein the first reference signal set is associated with a user equipment-specific matrix set, and each matrix in the user equipment-specific matrix set comprises at least one column, and each column comprises at least two rows; receiving a precoding matrix indicator PMI sent by the user equipment, wherein the PMI is used for indicating a precoding matrix that is selected based on the first reference signal set by the user equipment, the precoding matrix W is a product of two matrices W 1 and W 2, W=W 1 W 2, the matrix W 1 is a block diagonal matrix comprising two same block matrices X, each block matrix X is a kronecker product of two matrices C and D, X=CXD, and at least one matrix in the two matrices C and D is a function of the user equipment-specific matrix set, each matrix of the matrix W 2, the matrix C and the matrix D comprises at least one column, and each column comprises at least two rows, and the PMI comprises three indexes i 6, i 7 and is, wherein the index i 6 indicates the matrix C, the index i 7 indicates the matrix D, and the index i 8 indicates the matrix W 2. sending a first reference signal set to user equipment, wherein the first reference signal set is associated with a user equipment-specific matrix set, and each matrix in the user equipment-specific matrix set comprises at least one column, and each column comprises at least two rows; receiving a precoding matrix indicator PMI sent by the user equipment, wherein the PMI is used for indicating a precoding matrix that is selected based on the first reference signal set by the user equipment, the precoding matrix W is a product of two matrices W 1 and W 2, W=W 1 W 2, the matrix W 1 is a block diagonal matrix comprising two same block matrices X, each block matrix X is a kronecker product of two matrices C and D, X=CXD, and at least one matrix in the two matrices C and D is a function of the user equipment-specific matrix set, each matrix of the matrix W 2, the matrix C and the matrix D comprises at least one column, and each column comprises at least two rows, and the PMI comprises three indexes i 6, i 7 and is, wherein the index i 6 indicates the matrix C, the index i 7 indicates the matrix D, and the index i 8 indicates the matrix W 2.
Lamp, in particular retrofit lamp, having a lamp cap, having an at least partially transparent closed envelope which is connected to the lamp cap and is designed to function as a heat sink for the lamp, having an illumination means arrangement which contains a multiplicity of optoelectronic components, which are arranged inside the envelope in a 4n arrangement in such a way that they act in all spatial directions, having a gaseous heat transfer medium which is introduced into the interior of the envelope and is designed to transport thermal energy generated by the illumination means arrangement to the envelope which functions as a heat sink, which is introduced in the interior of the envelope, wherein the gaseous heat transfer medium is provided as the sole gas in the envelope, characterized in that the molecules of the gaseous heat transfer medium each have at least three atoms, and in that the envelope is gas-tight for the sole gaseous heat transfer medium contained therein.
A method comprising: introducing a first optical mode M 1 into an optical device comprising an optical fiber having a complex long period grating mode transformer beam focuser or beam homogenizer adapted to transform at least a portion of the first optical mode M 1 into at least two higher order modes M x, and M y, such that a linear combination of the modes M x, and M y generate a beam emerging from an end of the fiber, wherein the modes M x and M y have respective coefficients, and the modes M x and M y and their respective coefficients are adapted to focus the beam in the near field or to approach a homogeneous beam profile in the far field of the beam. introducing a first optical mode M 1 into an optical device comprising an optical fiber having a complex long period grating mode transformer beam focuser or beam homogenizer adapted to transform at least a portion of the first optical mode M 1 into at least two higher order modes M x, and M y, such that a linear combination of the modes M x, and M y generate a beam emerging from an end of the fiber, wherein the modes M x and M y have respective coefficients, and the modes M x and M y and their respective coefficients are adapted to focus the beam in the near field or to approach a homogeneous beam profile in the far field of the beam.
A device for conveying pneumatically conveyed fuels, in particular solid secondary fuels in burners for rotary kilns, comprising a central conveyor pipe having an open end with an outlet for the pneumatically conveyed fuels and an oppositely located end region, in which the fuels are fed to the conveyor pipe, wherein, adjacent to the outlet of the conveyor pipe, at least one duct (6, 7, 9) communicating with an air supply opens into the interior of the conveyor pipe in an obliquely forwardly directed manner, characterized in that the at least one duct (6,7,9) opens into the interior of the conveyor pipe in such a manner that the fuel particle stream is ejected obliquely to the axis of the conveyor pipe.
Child safety seat for attachment to a vehicle seat, in particular a motor vehicle seat, comprising a seat section and a backrest and also at least one rebound protection element which can assume a rest position and at least one functional position, wherein a distal end of the rebound protection element is shifted further outwards in the at least one functional position than in the rest position, wherein an actuation device is provided and is designed such that the rebound protection element is transferred from its rest position to the functional position when a limit value of an acceleration of the child safety seat is exceeded, wherein the rebound protection element in the functional position protrudes from a rear side of the backrest.
An ultrasound treatment system configured to conduct a non-invasive subcutaneous tissue treatment, comprising: a probe comprising a transducer with a backing layer, a controller in communication with the probe and controlling the probe; wherein the transducer is configured to couple to a skin surface and wherein the controller is configured to control the transducer to deliver ablative ultrasound energy in a range of approximately 0.1 to 10 joules for a period of 1 ms to 40 ms to a region of interest below the skin surface to create a thermal lesion of a size in the range of 0.1 cubic millimeters to 1000 cubic millimeters; and further comprising: a sensor capable of sensing the amount of energy transferred to the skin and the time that the ultrasound treatment system has been actively emitting energy, wherein the sensor is configured to prevent over use of the system, wherein the sensor is operatively connected to the controller and is configured to force the controller to stop the delivery of ultrasound energy from the probe. a probe comprising a transducer with a backing layer, a controller in communication with the probe and controlling the probe; wherein the transducer is configured to couple to a skin surface and wherein the controller is configured to control the transducer to deliver ablative ultrasound energy in a range of approximately 0.1 to 10 joules for a period of 1 ms to 40 ms to a region of interest below the skin surface to create a thermal lesion of a size in the range of 0.1 cubic millimeters to 1000 cubic millimeters; and further comprising: a sensor capable of sensing the amount of energy transferred to the skin and the time that the ultrasound treatment system has been actively emitting energy, wherein the sensor is configured to prevent over use of the system, wherein the sensor is operatively connected to the controller and is configured to force the controller to stop the delivery of ultrasound energy from the probe.
Motor vehicle rear axle that comprises a longitudinal arm, a clevis in which the arm is mounted for rotation, the clevis being fixed to the chassis of the vehicle, characterised in that it comprises a cover protecting the clevis, provided with a body able to cover the clevis, and a curved tongue formed projecting on a front wall of the body, able to be introduced through an aperture formed in a front wall of the clevis.
A directable sound-absorbing panel comprising a sound-absorbing panel, a fixing member which can be fixed to said sound-absorbing panel, an arm and an articulated joint between said fixing member and said arm, wherein said panel comprises a padding layer with heat-bonded synthetic fibers and a first layer of fabric facing a first side of said padding layer, wherein said padding layer has a first thickness, wherein said padding layer is shaped so as to have an edge along at least a part of the perimeter of said panel, the edge having a second thickness which is smaller than the first thickness, characterized in that the fixing member comprises a plate having one side cooperating with a surface of the sound-absorbing panel, the plate having holes and comprising screws for fixing the plate to the sound-absorbing panel or the plate being fixed to the sound-absorbing panel by magnetic means.
A recording apparatus comprising: an adhesive belt that supports and transports a recording medium on a support surface; and a winding section on which the recording medium is wound; characterized in that the recording apparatus further comprises: a sensor that detects whether or not an angle formed between the support surface and a part of the recording medium separated from the support surface is in a range of 80° or more and 100° or less at a separation position of the recording medium from the support surface; and a control section that controls the winding section to be driven when the sensor detects that the angle is in the range at the separation position. an adhesive belt that supports and transports a recording medium on a support surface; and a winding section on which the recording medium is wound; characterized in that the recording apparatus further comprises: a sensor that detects whether or not an angle formed between the support surface and a part of the recording medium separated from the support surface is in a range of 80° or more and 100° or less at a separation position of the recording medium from the support surface; and a control section that controls the winding section to be driven when the sensor detects that the angle is in the range at the separation position.
An aerosol generating device comprising: a heating chamber for receiving an aerosol generating article, the heating chamber comprising a chamber wall that defines an interior volume of the heating chamber; and at least one inductively heatable susceptor mounted in the interior volume of the heating chamber such that there is an outer air gap between the susceptor and the chamber wall and, when an aerosol generating article is received in the heating chamber, there is an inner air gap between the susceptor and the aerosol generating article; characterised in that the heating chamber is open to the atmosphere at a proximal end and is closed at a distal end, the inner air gap providing a first air path from the proximal end to the distal end and the outer air gap providing a second air path from the proximal end to the distal end. a heating chamber for receiving an aerosol generating article, the heating chamber comprising a chamber wall that defines an interior volume of the heating chamber; and at least one inductively heatable susceptor mounted in the interior volume of the heating chamber such that there is an outer air gap between the susceptor and the chamber wall and, when an aerosol generating article is received in the heating chamber, there is an inner air gap between the susceptor and the aerosol generating article; characterised in that the heating chamber is open to the atmosphere at a proximal end and is closed at a distal end, the inner air gap providing a first air path from the proximal end to the distal end and the outer air gap providing a second air path from the proximal end to the distal end.
A gas turbine engine comprising: a combustor section arranged between a compressor section and a turbine section; a fan section having a rotor hub and an array of airfoils circumferentially spaced about the rotor hub to define a plurality of channels; wherein each of the array of airfoils includes pressure and suction sides (P,S) and extending in a radial direction from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip, facing pressure and suction sides of adjacent airfoils defining a channel in a chordwise direction having a width between the facing pressure and suction sides (P,S)at a given span position of the adjacent airfoils; and wherein the width at each pressure side location along the channel is defined as a minimum distance to a location along the suction side, the width converging along the channel for at least some span positions greater than 5% span, characterised in that: the width converges along the channel for less than half of the span positions; and each of the array of airfoils has a solidity defined by a ratio of an airfoil chord over a circumferential pitch, the solidity being between about 1.6 and about 2.5 for each of the span positions in which the width converges along the channel. a combustor section arranged between a compressor section and a turbine section; a fan section having a rotor hub and an array of airfoils circumferentially spaced about the rotor hub to define a plurality of channels; wherein each of the array of airfoils includes pressure and suction sides (P,S) and extending in a radial direction from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip, facing pressure and suction sides of adjacent airfoils defining a channel in a chordwise direction having a width between the facing pressure and suction sides (P,S)at a given span position of the adjacent airfoils; and wherein the width at each pressure side location along the channel is defined as a minimum distance to a location along the suction side, the width converging along the channel for at least some span positions greater than 5% span, characterised in that: the width converges along the channel for less than half of the span positions; and each of the array of airfoils has a solidity defined by a ratio of an airfoil chord over a circumferential pitch, the solidity being between about 1.6 and about 2.5 for each of the span positions in which the width converges along the channel. the width converges along the channel for less than half of the span positions; and each of the array of airfoils has a solidity defined by a ratio of an airfoil chord over a circumferential pitch, the solidity being between about 1.6 and about 2.5 for each of the span positions in which the width converges along the channel.
An electric tool, comprising: a walking unit, comprising a walking assembly, a walking control assembly, and a walking switch assembly, wherein the walking assembly is controllable to work by the walking control assembly when the walking switch assembly is in a turned-on state, and a working unit, comprising a working assembly, a working control assembly, and a working switch assembly, wherein the working assembly is controllable to work by the working control assembly when the working switch assembly is in a turned-on state; wherein the walking control assembly is adapted to send a lock signal to the working control assembly or the working control assembly is adapted to send a lock signal to the walking control assembly, at least one of the walking control assembly and the working control assembly are configured to receive such a lock signal when either the walking switch assembly or the working switch assembly is in an operational state; and when the switch assembly corresponding to the control assembly receiving the lock signal is in a turned-on state, the walking assembly and the working assembly are simultaneously controllable to work by the control assembly receiving the lock signal. a walking unit, comprising a walking assembly, a walking control assembly, and a walking switch assembly, wherein the walking assembly is controllable to work by the walking control assembly when the walking switch assembly is in a turned-on state, and a working unit, comprising a working assembly, a working control assembly, and a working switch assembly, wherein the working assembly is controllable to work by the working control assembly when the working switch assembly is in a turned-on state; wherein the walking control assembly is adapted to send a lock signal to the working control assembly or the working control assembly is adapted to send a lock signal to the walking control assembly, at least one of the walking control assembly and the working control assembly are configured to receive such a lock signal when either the walking switch assembly or the working switch assembly is in an operational state; and when the switch assembly corresponding to the control assembly receiving the lock signal is in a turned-on state, the walking assembly and the working assembly are simultaneously controllable to work by the control assembly receiving the lock signal.
A compound of the following structure of formula: RC -Xaa-Xbb-Y, wherein - R is a C5-C19 linear or branched (fatty) hydrocarbon chain, - Xaa is an asparagine or an equivalent polar and non-charged amino acid selected from the list consisting of serine, threonine or glutamine moiety, - Xbb is a gamma-aminobutyric acid moiety, - Y is -OH or NH2, and wherein the gamma-aminobutyric acid moiety is linked to Xaa through its amine functional group and wherein the RC group is at the N terminal side and Y is a C terminal side, or a pharmaceutical acceptable salt thereof. - R is a C5-C19 linear or branched (fatty) hydrocarbon chain, - Xaa is an asparagine or an equivalent polar and non-charged amino acid selected from the list consisting of serine, threonine or glutamine moiety, - Xbb is a gamma-aminobutyric acid moiety, - Y is -OH or NH2,
A vehicle nacelle intended to be occupied by at least one passenger, the nacelle being intended to be connected to the body of the vehicle by a fastening device which is located in the vicinity of a first end of the nacelle, the nacelle comprising at least one passenger seat arranged in the vicinity of a second end of the nacelle, opposite said first end along a longitudinal axis of the nacelle, wherein the fastening device is configured to allow the nacelle to pivot around a pivoting axis that is horizontal and orthogonal to the longitudinal axis of the nacelle and the nacelle comprises at least one first motor means configured to pivot the nacelle around said pivoting axis in order to raise or lower the second end of the nacelle with respect to the vehicle body between a lowered position, so-called head-down position, and a raised position, so-called head-out position, wherein the nacelle comprises a nacelle body, which carries the passenger seat and to which the fastening device is intended to be connected, and a posture setting device through which the second end of the nacelle is intended to be connected to the vehicle body, characterised in that the posture setting device is connected, on one hand, to the nacelle body by first connecting means allowing the nacelle body to pivot around said pivoting axis without relative vertical movement between the posture setting device and the vehicle body and, on the other hand, to the body by second connecting means (14, 16, 17) allowing, in a release configuration, the nacelle body and the posture setting device to pivot integrally with each other, with respect to the body around the pivoting axis.
A driving assistance method for controlling an own vehicle by a controller in such a way that the own vehicle travels along a target travel trajectory, the method comprising: acquiring level-difference information of a level difference existing along a lane in which the own vehicle travels; and when, from the level-difference information, determining that the own vehicle is to climb over the level difference, generating the target travel trajectory in such a way that a level-difference climbing-over angle (θs), which is an angle formed by the level difference and the target travel trajectory, is larger than a threshold value (Th), wherein a larger value is set as the threshold value as the level difference is higher or inclination of the level difference is larger. acquiring level-difference information of a level difference existing along a lane in which the own vehicle travels; and when, from the level-difference information, determining that the own vehicle is to climb over the level difference, generating the target travel trajectory in such a way that a level-difference climbing-over angle (θs), which is an angle formed by the level difference and the target travel trajectory, is larger than a threshold value (Th), wherein a larger value is set as the threshold value as the level difference is higher or inclination of the level difference is larger.