mhurhangee/ep-ind-claims huggingface dataset:
A method for instant messaging, applied to a terminal, comprising: sending (S21, S31) a new message prompt message in a group when a user sends a new message in the group, the new message prompt message being configured to prompt all members in the group that a new unread message exists in the group; characterized by receiving (S22, S32) a read request configured to request reading of the new message sent from a second terminal of a member in the group, the read request being initiated by the member by means of the second terminal according to the new message prompt message on a group chat interface; and screening the read request according to a predefined rule so as to determine whether to allow the second terminal of the member to display the new message. sending (S21, S31) a new message prompt message in a group when a user sends a new message in the group, the new message prompt message being configured to prompt all members in the group that a new unread message exists in the group; characterized by receiving (S22, S32) a read request configured to request reading of the new message sent from a second terminal of a member in the group, the read request being initiated by the member by means of the second terminal according to the new message prompt message on a group chat interface; and screening the read request according to a predefined rule so as to determine whether to allow the second terminal of the member to display the new message.
Vane-type gas pump comprising a pump housing, wherein the pump housing forms a pump chamber, in which a pump rotor having at least one displaceable sliding element (32, 34, 36, 38, 40) is rotatably mounted, wherein at least one fluid inlet opening and at least one fluid outlet opening are allocated to the pump chamber, wherein the pump housing comprises a closed guiding ring, a separate first thrust disk, and a second separate thrust disk, wherein the guiding ring is axially clamped directly to the first thrust disk by means of at least one guiding ring adjustment means (100, 102), and wherein the first thrust disk, the guiding ring, and the second thrust disk are axially clamped together by means of at least one separate housing clamping means (110, 112, 114), and wherein the at least one guiding ring adjustment means (100, 102) is put through a through bore formed in the guiding ring, characterized in that the diameter of the through bore is larger than the diameter of the guiding ring adjustment means (100, 102) so that the guiding ring is adjustable relative to the first thrust disk.
An alloy comprising, by weight, 4% to 7% aluminum, 0% to 0.2% carbon, 7% to 11% cobalt, 5% to 9% chromium, 0.01% to 0.2% hafnium, 0.5% to 2% molybdenum, 0% to 1.5% rhenium, 8% to 10.5% tantalum, 0.01% to 0.5% titanium, 6% to 10% tungsten, 0% to 0.5% lanthanum, 0% to 0.5% yttrium, and 0% to 0.5% boron, the balance nickel and incidental impurity elements.
A cam-type hand mechanism comprising: a motor; a cam pedestal member, the cam pedestal member including a cam base portion detachably assembled directly or indirectly to a rotor shaft extending from the motor, three-dimensional cams including a plurality of cam guiding surfaces continuing over a range from a through hole provided at a center of the cam base portion to an outer peripheral side, and being formed upright at a plurality of positions, and a hand mechanism assembled to the motor constantly in abutment with the three-dimensional cam, the hand mechanism including a plurality of claw portions openable and closable about an axial line of the rotor shaft in association with a rotary motion of the three-dimensional cam, wherein the cam base portion includes coupling portions configured to couple the cam pedestal member directly or indirectly to the rotor shaft at a plurality of positions in gap areas between radially inner ends and radially outer ends of the adjacent three-dimensional cams. a motor; a cam pedestal member, the cam pedestal member including a cam base portion detachably assembled directly or indirectly to a rotor shaft extending from the motor, three-dimensional cams including a plurality of cam guiding surfaces continuing over a range from a through hole provided at a center of the cam base portion to an outer peripheral side, and being formed upright at a plurality of positions, and a hand mechanism assembled to the motor constantly in abutment with the three-dimensional cam, the hand mechanism including a plurality of claw portions openable and closable about an axial line of the rotor shaft in association with a rotary motion of the three-dimensional cam, wherein the cam base portion includes coupling portions configured to couple the cam pedestal member directly or indirectly to the rotor shaft at a plurality of positions in gap areas between radially inner ends and radially outer ends of the adjacent three-dimensional cams.
Industrial truck with a display and/or operating device, a steering device arranged in front of a driver's seat, in particular a steering wheel, and actuating elements, which are arranged laterally in front of or next to the driver's seat, for a lifting device and/or a propelling drive of the industrial truck, wherein the lifting device is located in front of the driver's seat, characterized in that the display and/or operating device is arranged in front of the driver's seat at an angle formed between an arm movement axis towards the steering device and an arm movement axis towards the actuating elements.
A method for measuring a physical parameter of a target region of a medium, wherein: - an excitation wave is emitted into at least one target region of a medium, such that said wave has, in the location of said target region, a periodic modulation over time of at least one physical characteristic with a predefined temporal period, - a return wave, emitted in response to the excitation wave, is received from said target region, characterized in that - said return wave is periodically deflected into a deflected wave by means of a controllable deflecting element, so that said deflected wave scans a transducer array in each period of the periodic modulation, each transducer of the transducer array being associated with a predefined phase range of said periodic modulation, - a phase image comprising signals generated by each transducer of the transducer array, in response to the deflected wave, is recorded during at least one period of the periodic modulation, - a phase shift between a periodic modulation over time of at least one physical characteristic of the return wave and the periodic modulation over time of at least one physical characteristic of the excitation wave is determined from said phase image, - a physical parameter of said target region is determined from said phase shift. - an excitation wave is emitted into at least one target region of a medium, such that said wave has, in the location of said target region, a periodic modulation over time of at least one physical characteristic with a predefined temporal period, - a return wave, emitted in response to the excitation wave, is received from said target region, characterized in that - said return wave is periodically deflected into a deflected wave by means of a controllable deflecting element, so that said deflected wave scans a transducer array in each period of the periodic modulation, each transducer of the transducer array being associated with a predefined phase range of said periodic modulation, - a phase image comprising signals generated by each transducer of the transducer array, in response to the deflected wave, is recorded during at least one period of the periodic modulation, - a phase shift between a periodic modulation over time of at least one physical characteristic of the return wave and the periodic modulation over time of at least one physical characteristic of the excitation wave is determined from said phase image, - a physical parameter of said target region is determined from said phase shift.
A medical device comprising processing circuitry configured to: receive an electrical signal sensed via a plurality of electrodes (114, 115) disposed on one or more leads implanted within an epidural space of a patient; determine, from the electrical signal, one or more cardiac features indicative of activity of a heart of the patient; and control, based on the one or more cardiac features, delivery of spinal cord stimulation therapy to the patient, wherein to control, based on one or more cardiac features, delivery of the SCS therapy, the processing circuitry is configured to: determine that the one or more cardiac features are indicative of a change in pain experienced by the patient; and control, based on the determination that that the one or more cardiac features are indicative of the change in pain experienced by the patient, delivery of the SCS therapy, and wherein the one or more cardiac features comprise a heart rate variability of the heart of the patient. receive an electrical signal sensed via a plurality of electrodes (114, 115) disposed on one or more leads implanted within an epidural space of a patient; determine, from the electrical signal, one or more cardiac features indicative of activity of a heart of the patient; and control, based on the one or more cardiac features, delivery of spinal cord stimulation therapy to the patient, wherein to control, based on one or more cardiac features, delivery of the SCS therapy, the processing circuitry is configured to: determine that the one or more cardiac features are indicative of a change in pain experienced by the patient; and control, based on the determination that that the one or more cardiac features are indicative of the change in pain experienced by the patient, delivery of the SCS therapy, and determine that the one or more cardiac features are indicative of a change in pain experienced by the patient; and control, based on the determination that that the one or more cardiac features are indicative of the change in pain experienced by the patient, delivery of the SCS therapy, and wherein the one or more cardiac features comprise a heart rate variability of the heart of the patient.
A fabric comprising, in the fabric material, threads (11a1,12a1;13a1,14a1) of a material conducting electricity well, by means of which electromagnetic radiation and magnetic fields are filtered, the threads (11a1,12a1;13a1,14a1) are placed next to each other and wound around their winding axis (X1,X2;Y1,Y2) so that in the fabric a first thread (11a1, 13a1) is wound clockwise around a first winding axis thereby forming a first winding and a second thread (12a1, 14a1) next to it is wound counterclockwise around a second winding axis thereby forming a second winding, whereby the first winding and second winding put out magnetic field and the first winding axis is at a distance from the second winding axis, and the threads comprise a material that conducts electricity well, characterised in that the winding axes (X1, Y1; X2, Y2) of the first thread (11a1, 13a1) and the second thread (12a1, 14a1) are parallel and at a distance from each other, which is 0.5 mm to 50 mm. the threads (11a1,12a1;13a1,14a1) are placed next to each other and wound around their winding axis (X1,X2;Y1,Y2) so that in the fabric a first thread (11a1, 13a1) is wound clockwise around a first winding axis thereby forming a first winding and a second thread (12a1, 14a1) next to it is wound counterclockwise around a second winding axis thereby forming a second winding, whereby the first winding and second winding put out magnetic field and the first winding axis is at a distance from the second winding axis, and the threads comprise a material that conducts electricity well, characterised in that the winding axes (X1, Y1; X2, Y2) of the first thread (11a1, 13a1) and the second thread (12a1, 14a1) are parallel and at a distance from each other, which is 0.5 mm to 50 mm.
A pharmaceutical composition comprising hemp extract and a carrier, wherein the hemp extract comprises: cannabidiol; cannabidiolic acid; cannabigerolic acid; Δ9-tetrahydrocannabinol; and cannabichromene, wherein the ratio of cannabidiol to cannabidiolic acid is about 0.6:1 to about 1:0.6; and wherein the ratio of Δ9-tetrahydrocannabinol to the other cannabinoids is from about 1:50 to about 1:20. cannabidiol; cannabidiolic acid; cannabigerolic acid; Δ9-tetrahydrocannabinol; and cannabichromene, wherein the ratio of cannabidiol to cannabidiolic acid is about 0.6:1 to about 1:0.6; and wherein the ratio of Δ9-tetrahydrocannabinol to the other cannabinoids is from about 1:50 to about 1:20.
An optimistic protocol for a two-party transaction, wherein the optimistic protocol has an off-line trusted third party which is involved only if the parties behave maliciously or the communication channel is interrupted during execution of an exchange protocol, the optimistic protocol comprising: a setup sub-protocol that comprises an authorized Diffie-Hellman key agreement having a resulting encryption key, R 2; an exchange sub-protocol that comprises sending a certificate C A, a message description, Dsc m,, an encrypted message, C, and a first hash, R', of the encryption key, R 2, with the certificate from a sending party to a receiving party, sending a receipt from the receiving party to the sending party and, upon receiving the receipt, sending the encryption key, R 2, to the receiving party; and a dispute sub-protocol comprising the trusted third party that comprises a dispute resolution mechanism for resolving disputes between the sending party and the receiving party due to the first hash, R', of the encryption key not being equal to a second hash, H, of the sent encryption key, R 2; wherein the authorized Diffie-Hellman key agreement comprises sharing the encryption key, R 2, between a sending party and the trusted third party and wherein the trusted third party resolves disputes between the sending party and the receiving party. a setup sub-protocol that comprises an authorized Diffie-Hellman key agreement having a resulting encryption key, R 2; an exchange sub-protocol that comprises sending a certificate C A, a message description, Dsc m,, an encrypted message, C, and a first hash, R', of the encryption key, R 2, with the certificate from a sending party to a receiving party, sending a receipt from the receiving party to the sending party and, upon receiving the receipt, sending the encryption key, R 2, to the receiving party; and a dispute sub-protocol comprising the trusted third party that comprises a dispute resolution mechanism for resolving disputes between the sending party and the receiving party due to the first hash, R', of the encryption key not being equal to a second hash, H, of the sent encryption key, R 2;
A method of scheduling transmission of data streams from a node towards a receiver in a communication network, wherein said data streams include data packets for playout via a receiver reproduction buffer at the receiver, the method including: - arranging said data packets in at least one scheduling queue at said node; - dropping data packets from said scheduling queue if their sojourn time in said scheduling queue exceeds a given drop deadline, d; - determining respective playout values, po, for said data packets indicative of expected playout instants, p, for said data packets by said receiver reproduction buffer, and - assigning said drop deadlines, d, to said data packets as a function of said respective playout values, po, characterised in that: - said determining respective playout values, po, for said data packets indicative of expected playout instants, p, for said data packets by said receiver reproduction buffer comprises emulating, at said node, the receiver reproduction buffer for said data packets with an emulated reproduction buffer, wherein said emulating the receiver reproduction buffer comprises emulating an optimal playout buffering algorithm, wherein said optimal playout buffering algorithm determines said respective playout values, po, as a function of a Mean Opinion Score, MOS, which considers QoS and/or QoE criteria. - arranging said data packets in at least one scheduling queue at said node; - dropping data packets from said scheduling queue if their sojourn time in said scheduling queue exceeds a given drop deadline, d; - determining respective playout values, po, for said data packets indicative of expected playout instants, p, for said data packets by said receiver reproduction buffer, and - assigning said drop deadlines, d, to said data packets as a function of said respective playout values, po, - said determining respective playout values, po, for said data packets indicative of expected playout instants, p, for said data packets by said receiver reproduction buffer comprises emulating, at said node, the receiver reproduction buffer for said data packets with an emulated reproduction buffer, wherein said emulating the receiver reproduction buffer comprises emulating an optimal playout buffering algorithm,
A method for performing gas chromatography, said method comprising: providing an injector, a column and a detector, the column having a front end for receiving a sample of compounds from the injector, and a back end for elution of the sample into the detector; applying primary heat from a first heating device to the column to create a monotonically decreasing and continuous thermal gradient along a portion of the column; applying secondary heat from a second heating device that overlaps the first heating device, to the entire length of the column to thereby raise the thermal gradient of the column; and wherein the thermal gradient is non-linear, and wherein the thermal gradient has a non-negative second derivative, and wherein the first heating device is stationary relative to the column, and wherein the first heating device is a heat exchanger or is resistive heating, infra-red heating, inductive heating or microwave heating; eluting the compounds from the column and into the detector; and obtaining peaks of the compounds from the detector. providing an injector, a column and a detector, the column having a front end for receiving a sample of compounds from the injector, and a back end for elution of the sample into the detector; applying primary heat from a first heating device to the column to create a monotonically decreasing and continuous thermal gradient along a portion of the column; applying secondary heat from a second heating device that overlaps the first heating device, to the entire length of the column to thereby raise the thermal gradient of the column; and wherein the thermal gradient is non-linear, and wherein the thermal gradient has a non-negative second derivative, and wherein the first heating device is stationary relative to the column, and wherein the first heating device is a heat exchanger or is resistive heating, infra-red heating, inductive heating or microwave heating; eluting the compounds from the column and into the detector; and obtaining peaks of the compounds from the detector.
A device for trapping animal pests such as caterpillars, having a collar which is designed to surround the trunk of a tree, said collar comprising a substantially annular walkway that extends substantially in a first plane that is intended to be oriented horizontally, and comprising joining means that are intended to join the collar to the trunk of the tree, the joining means comprising an arrangement of flexible bristles having a density suitable for preventing the animal pests from passing through, characterized in that the bristles are oriented extending from and away from the walkway so as to be directed towards the tree to wrap and to come into contact with the bark of the tree by their free terminals.
Packaging machine for packaging packaged goods by means of a stretchable film, comprising a film transport device for feeding film to a packaged good to be packaged, which device has a first and a second belt conveyor apparatus (12a, 12b) for transporting the film, the belt conveyor apparatuses (12a, 12b) each comprising a first and a second transport belt (13a, 13b) which are driven synchronously in a film transport direction which is predetermined by the film transport device and are arranged alongside one another, it being possible for at least the second belt conveyor apparatus to move in a direction perpendicular to the film transport direction, and comprising a movable film guide element by means of which the film can be inserted into the film transport device, the film guide element comprising a guide plate (18a, 18b) for guiding the film, which plate has a first recess and a second recess in an upper edge, in the vertical direction, which faces the belt conveyor apparatuses (12a, 12b), it being possible for the first belt conveyor apparatus to be inserted into the first recess and the second belt conveyor apparatus to be inserted into the second recess, as a result of which a first zero position with respect to the width of the film is established, characterized in that the guide plate of the film guide element is vertically oriented, and in that the guide plate (18a, 18b) has at least a third recess along the edge thereof facing the belt conveyor apparatuses (12a, 12b), it being possible for the second belt conveyor apparatus to be inserted into the third recess instead of the second recess in order to establish a second zero position with respect to the width of the film, or in that at least the second recess of the guide plate (18a, 18b) is formed in a recess element which can be displaced on the upper edge of the guide plate (18a, 18b) in order to establish the second zero position with respect to the width of the film.
A method comprising: orienting at least one dry fiber prepreg ply, said dry fiber prepreg ply formed by an encapsulated resin-containing material that is incorporated into a composite dry fiber material, wherein said prepreg ply is maintained in a dry state, said dry fiber prepreg ply comprising encapsulated resin-containing particles, and said encapsulated resin-containing particles collectively comprising an amount of resin-containing material; applying pressure to the dry fiber prepreg ply; rupturing a first predetermined amount of the encapsulated resin-containing particles; releasing a first predetermined amount of resin-containing material from the first amount of encapsulated resin-containing particles; and impregnating the dry fiber prepreg ply with the first predetermined amount of resin-containing material released from the ruptured encapsulated resin-containing particles to form a resin-impregnated prepreg ply. orienting at least one dry fiber prepreg ply, said dry fiber prepreg ply formed by an encapsulated resin-containing material that is incorporated into a composite dry fiber material, wherein said prepreg ply is maintained in a dry state, said dry fiber prepreg ply comprising encapsulated resin-containing particles, and said encapsulated resin-containing particles collectively comprising an amount of resin-containing material; applying pressure to the dry fiber prepreg ply; rupturing a first predetermined amount of the encapsulated resin-containing particles; releasing a first predetermined amount of resin-containing material from the first amount of encapsulated resin-containing particles; and impregnating the dry fiber prepreg ply with the first predetermined amount of resin-containing material released from the ruptured encapsulated resin-containing particles to form a resin-impregnated prepreg ply.