mhurhangee/patent-ind-claim-en huggingface dataset:
A machine for making, displaying, and dispensing ice cream comprising, in combination: - a flat surface provided with at least an opening ; - at least one container adapted to contain a basic mixture and provided with an opening , the at least one container being inserted in the opening of the flat surface ; - a stirrer and a refrigeration system , operatively associated with the container respectively for mixing the basic mixture and for cooling the basic mixture in such a way as to convert it into finished product; the machine being characterized in that it further comprises: - a flange coupled to the flat surface ; - means for coupling the flange to the flat surface ; - a lid movably connected to the flange to close the opening of the container wherein the means for coupling the flange to the flat surface comprise first means connected to the flat surface and second means connected to the flange , the first and second means being configured to be coupled to each other, the first means being connected to the flat surface comprising a plurality of pins and the second means comprising elastically deformable elements configured to be elastically deformed when one of the pins is inserted into one elastically deformable elements. - a flat surface provided with at least an opening ; - at least one container adapted to contain a basic mixture and provided with an opening , the at least one container being inserted in the opening of the flat surface ; - a stirrer and a refrigeration system , operatively associated with the container respectively for mixing the basic mixture and for cooling the basic mixture in such a way as to convert it into finished product; the machine being characterized in that it further comprises: - a flange coupled to the flat surface ; - means for coupling the flange to the flat surface ; - a lid movably connected to the flange to close the opening of the container wherein the means for coupling the flange to the flat surface comprise first means connected to the flat surface and second means connected to the flange , the first and second means being configured to be coupled to each other, the first means being connected to the flat surface comprising a plurality of pins and the second means comprising elastically deformable elements configured to be elastically deformed when one of the pins is inserted into one elastically deformable elements. - a flange coupled to the flat surface ; - means for coupling the flange to the flat surface ; - a lid movably connected to the flange to close the opening of the container wherein the means for coupling the flange to the flat surface comprise first means connected to the flat surface and second means connected to the flange , the first and second means being configured to be coupled to each other, the first means being connected to the flat surface comprising a plurality of pins and the second means comprising elastically deformable elements configured to be elastically deformed when one of the pins is inserted into one elastically deformable elements.
A method for producing a dialkylaminosilane, by allowing a dialkylamine to react with a chlorosilane in a mixed solvent of an aprotic polar solvent and a solvent of straight-chain or branched hydrocarbon, wherein the aprotic polar solvent is at least one selected from acetonitrile, tetrahydrofuran, dimethylformamide, acetone, dichloromethane, dimethylsulfoxide, dioxane, dimethylacetamide, and hexamethylphosphoramide, the dialkylamine is represented by a chemical formula: in which R1 and R2 are independently a straight-chain alkyl group having 1 to 6 carbons or a branched alkyl group having 3 to 6 carbons, and the chlorosilane is represented by a chemical formula: R3 n -Si-Cl (4-n) in which R3 is hydrogen, a straight-chain alkyl group having 1 to 6 carbons, a branched alkyl group having 3 to 6 carbons or a phenyl group, and n is an integer from 0 to 3.
A wireless transmit/receive unit, WTRU, comprising a processor and a memory , characterized in that the processor is configured to: receive a downlink control information, DCI, using a physical downlink control channel, wherein the DCI indicates which of a first set of resources or a second set of resources is to be used by the WTRU for radio link monitoring, RLM; determine reference signals to use for RLM based on the received DCI, wherein a first set of reference signals are used for RLM responsive to the DCI indicating that the first set of resources are to be used by the WTRU and a second set of reference signals are to be used for RLM responsive to the DCI indicating that the second set of resources are to be used by the WTRU ; perform RLM measurements using the first set of reference signals if the first set of resources are used by the WTRU or perform RLM measurements using the second set of reference signals if the second set of resources are used by the WTRU ; responsive to a determination that a radio link quality based on the RLM measurements is below a threshold, sending a message that indicates a request for a radio resource control, RRC, procedure. receive a downlink control information, DCI, using a physical downlink control channel, wherein the DCI indicates which of a first set of resources or a second set of resources is to be used by the WTRU for radio link monitoring, RLM; determine reference signals to use for RLM based on the received DCI, wherein a first set of reference signals are used for RLM responsive to the DCI indicating that the first set of resources are to be used by the WTRU and a second set of reference signals are to be used for RLM responsive to the DCI indicating that the second set of resources are to be used by the WTRU ; perform RLM measurements using the first set of reference signals if the first set of resources are used by the WTRU or perform RLM measurements using the second set of reference signals if the second set of resources are used by the WTRU ; responsive to a determination that a radio link quality based on the RLM measurements is below a threshold, sending a message that indicates a request for a radio resource control, RRC, procedure.
An energy-absorbing device , in particular for a rail-car; the device extending along an axis and comprising: - an attachment member , which can be connected to a supporting structure; - an impact member , designed to withstand an impact; and - an energy-absorbing member , constituted by a first tube and by a second tube , which are coaxial along said axis and are made of composite material so as to collapse and absorb energy in the event of impact; said first tube comprising a first attachment end fixed to said attachment member and a first free end axially facing said impact member ; said second tube comprising a second attachment end fixed to said impact member and a second free end axially facing said attachment member , and being axially slidable, during impact, guided by said first tube ; the cross sections of said first and second tubes being variable along said axis ; characterized in that : - the thickness in the radial direction of said first and second tubes decreases along said axis from said first and said second attachment ends towards said first and second free ends , respectively; and - in a non-collapsed resting condition, the axial gap between said second free end and said attachment member is substantially equal to the gap between said first free end and said impact member so that said first and second tubes start to collapse simultaneously in the event of impact. - an attachment member , which can be connected to a supporting structure; - an impact member , designed to withstand an impact; and - an energy-absorbing member , constituted by a first tube and by a second tube , which are coaxial along said axis and are made of composite material so as to collapse and absorb energy in the event of impact; said first tube comprising a first attachment end fixed to said attachment member and a first free end axially facing said impact member ; said second tube comprising a second attachment end fixed to said impact member and a second free end axially facing said attachment member , and being axially slidable, during impact, guided by said first tube ; the cross sections of said first and second tubes being variable along said axis ; - the thickness in the radial direction of said first and second tubes decreases along said axis from said first and said second attachment ends towards said first and second free ends , respectively; and - in a non-collapsed resting condition, the axial gap between said second free end and said attachment member is substantially equal to the gap between said first free end and said impact member so that said first and second tubes start to collapse simultaneously in the event of impact.
A method performed by a base station in a wireless communication system, the method comprising: performing a random access procedure with a user equipment, UE, by using a preamble and a response message to the preamble; configuring (S901) a power reduction duration in a first region of a subframe for performing a downlink transmission with a first downlink transmission power lower than a second downlink transmission power for performing a second downlink transmission in a second region of the subframe, the second region for which a power reduction duration is not configured; generating (S903) a first transport block for the first region and a second transport block for the second region by mapping downlink data of at least one physical downlink shared channel, PDSCH, to each of the first transport block and the second transport block; transmitting (S907) the first transport block with the first downlink transmission power assigned to the first region through the first region; and transmitting (S907) the second transport block with the second downlink transmission power assigned to the second region through the second region, wherein the first region and the second regions are different from each other, and wherein the power reduction duration is configured for protecting uplink transmissions in a neighbor cell. performing a random access procedure with a user equipment, UE, by using a preamble and a response message to the preamble; configuring (S901) a power reduction duration in a first region of a subframe for performing a downlink transmission with a first downlink transmission power lower than a second downlink transmission power for performing a second downlink transmission in a second region of the subframe, the second region for which a power reduction duration is not configured; generating (S903) a first transport block for the first region and a second transport block for the second region by mapping downlink data of at least one physical downlink shared channel, PDSCH, to each of the first transport block and the second transport block; transmitting (S907) the first transport block with the first downlink transmission power assigned to the first region through the first region; and transmitting (S907) the second transport block with the second downlink transmission power assigned to the second region through the second region, wherein the first region and the second regions are different from each other, and wherein the power reduction duration is configured for protecting uplink transmissions in a neighbor cell.
A single-upright-column type wellhead production operation platform, the platform comprising: an upright column body of a hollow structure; a positioning and mounting assembly arranged at a bottom of the upright column body ; at least one inner well slot arranged in the upright column body, characterized in further comprising an oil extraction operation platform arranged on the top of the upright column body , the oil extraction operation platform includes a wellhead deck , the oil extraction operation platform being provided with an oil extraction operation assembly , and the oil extraction operation assembly includes at least one selected from an oil extraction tree, a manifold terminal and a production auxiliary system; the inner well slots being capable of being connected to the oil extraction operation platform. an upright column body of a hollow structure; a positioning and mounting assembly arranged at a bottom of the upright column body ; at least one inner well slot arranged in the upright column body, characterized in further comprising an oil extraction operation platform arranged on the top of the upright column body , the oil extraction operation platform includes a wellhead deck , the oil extraction operation platform being provided with an oil extraction operation assembly , and the oil extraction operation assembly includes at least one selected from an oil extraction tree, a manifold terminal and a production auxiliary system; the inner well slots being capable of being connected to the oil extraction operation platform.
A turf surface , wherein the turf surface comprises one or more natural turf portions comprising natural grass plants and at least one hybrid turf portion comprising an artificial turf visual marking element and the natural grass plants ; wherein the artificial turf visual marking element comprises : - an artificial turf backing , wherein the artificial turf backing is divided into at least one visual marking region and a structural support region at least partially surrounding each of the at least one visual marking region, wherein the artificial turf backing comprises holes throughout the visual marking region, wherein the artificial turf backing comprises the holes throughout the structural support region, wherein the natural grass plants of the hybrid turf portion comprise roots growing through the holes; - contrasting artificial turf fibers attached to the artificial turf backing only within the visual marking region, wherein the contrasting artificial turf fibers provide a visual contrast to the natural grass plants within the visual marking region and the support region. - an artificial turf backing , wherein the artificial turf backing is divided into at least one visual marking region and a structural support region at least partially surrounding each of the at least one visual marking region, wherein the artificial turf backing comprises holes throughout the visual marking region, wherein the artificial turf backing comprises the holes throughout the structural support region, wherein the natural grass plants of the hybrid turf portion comprise roots growing through the holes; - contrasting artificial turf fibers attached to the artificial turf backing only within the visual marking region, wherein the contrasting artificial turf fibers provide a visual contrast to the natural grass plants within the visual marking region and the support region.
A refrigerator, including a magnetic cooler and a cold heat exchanger for cooling the cooling space of the appliance and means for detecting a value representative of the temperature of the cold heat exchanger, wherein the appliance includes a pump for delivering the heat transfer medium and a control or regulating unit, characterized in that by means of the control or regulating unit the delivery rate of the heat transfer medium delivered by the pump is adjustable such that in cooling operation the temperature of the cold heat exchanger does not go below 0°C, and that the magnetic cooler and the pump are configured such that they run continuously, as no defrosting cycle of the cold heat exchanger is required.
A temperature detecting device for a heat management system of a battery product, characterized in that , the temperature detecting device comprises, a housing , a temperature sensor , and a fixed part ; wherein a sensing portion of the temperature sensor is located on a surface of the housing , and the surface of the housing where the sensing portion is located is a temperature detecting surface , the temperature detecting surface is provided with an arc groove extending from one end to the other end of the temperature detecting surface , the sensing portion of the temperature sensor is located on the surface of the arc groove ; the sensing portion of the temperature sensor protrudes from the surface of the arc groove , the surface of the arc groove is provided with two or more protruding fulcrums , and a height of the fulcrums is equal to a height of the sensing portion of the temperature sensor ; wherein the fixed part is detachably connected to the housing , and a space for accommodating an object to be measured to pass through is provided between the fixed part and the temperature detecting surface .
A component feeding system comprising: a stage configured to support components in a scattered state; a holding tool configured to pick up and hold the components scattered on the stage ; an imaging device configured to image the components scattered on the stage ; and a control device configured to acquire, based on image data of the imaging device , a pickup possible component quantity (Y) that is a quantity of components that can be picked up by the holding tool from among the components scattered on the stage , wherein the control device is configured to, based on the image data of the imaging device , acquire a scattered component quantity (X) that is a quantity of the components scattered on the stage , and calculate a ratio (Y/X) of the pickup possible component quantity (Y) to the scattered component quantity (X), characterized in that the control device is configured to, after acquiring a first pickup possible component quantity (Y) that is a first instance of the pickup possible component quantity (Y) and a first scattered component quantity (X) that is a first instance of the scattered component quantity (X), increase or decrease a quantity of the components scattered on the stage , acquire a second pickup possible component quantity (Y) that is a second instance of the pickup possible component quantity (Y) and a second scattered component quantity (X) that is a second instance of the scattered component quantity (X), and calculate a ratio (Y/X) of the second pickup possible component quantity (Y) to the second scattered component quantity (X). a stage configured to support components in a scattered state; a holding tool configured to pick up and hold the components scattered on the stage ; an imaging device configured to image the components scattered on the stage ; and a control device configured to acquire, based on image data of the imaging device , a pickup possible component quantity (Y) that is a quantity of components that can be picked up by the holding tool from among the components scattered on the stage , wherein the control device is configured to, based on the image data of the imaging device , acquire a scattered component quantity (X) that is a quantity of the components scattered on the stage , and calculate a ratio (Y/X) of the pickup possible component quantity (Y) to the scattered component quantity (X), characterized in that the control device is configured to, after acquiring a first pickup possible component quantity (Y) that is a first instance of the pickup possible component quantity (Y) and a first scattered component quantity (X) that is a first instance of the scattered component quantity (X), increase or decrease a quantity of the components scattered on the stage , acquire a second pickup possible component quantity (Y) that is a second instance of the pickup possible component quantity (Y) and a second scattered component quantity (X) that is a second instance of the scattered component quantity (X), and calculate a ratio (Y/X) of the second pickup possible component quantity (Y) to the second scattered component quantity (X).
A flame retardant composition comprising an amine (poly)phosphate and having an amine excess of 0.01 to 10 mol%, the amine excess being represented by formula : [Math. 1] Amine excess mol % = ∑ A n × B n mol − phosphorus atoms mol contained in flame retardant composition / phosphorus atoms mol contained in flame retardant composition × 100 wherein n represents the number of the kinds of the amines in the amine (poly)phosphate; A 1 to A n each represent the maximum number of dissociation stages of the respective amines, the maximum number of dissociation stages being defined as the maximum number of the dissociation stages in which the base dissociation constant pKb is in the range of from 0 to 13 at 25°C; and B 1 to B n each represent the number of moles of the respective amines of the amine (poly)phosphate when the amine is assumed to be present alone; wherein the amine of the amine (poly)phosphate comprises melamine and piperazine.
A method for processing an audio signal in accordance with a room impulse response , the method comprising: separately processing the audio signal with an early part of the room impulse response and with a late reverberation of the room impulse response or a synthetic reverberation, wherein processing the audio signal with the early part of the room impulse response comprises a convolution of the audio signal with a direct sound and early reflections of the room impulse response; and combining the audio signal processed with the early part of the room impulse response and the audio signal processed with the late reverberation of the room impulse response or with the synthetic reverberation, determining a transition from the early part to the late reverberation in the room impulse response as a time when a correlation measure reaches a threshold, wherein the correlation measure describes with regard to the room impulse response a similarity of a decay in acoustic energy including an initial state and of the decay in acoustic energy starting at a point in time, said point in time following the initial state over a predefined frequency range, wherein the threshold is set dependent on the correlation measure for said point in time, said point in time being a time of a selected one of the early reflections in the early part of the room impulse response , and wherein the selected one of the early reflections is the first reflection . separately processing the audio signal with an early part of the room impulse response and with a late reverberation of the room impulse response or a synthetic reverberation, wherein processing the audio signal with the early part of the room impulse response comprises a convolution of the audio signal with a direct sound and early reflections of the room impulse response; and combining the audio signal processed with the early part of the room impulse response and the audio signal processed with the late reverberation of the room impulse response or with the synthetic reverberation, determining a transition from the early part to the late reverberation in the room impulse response as a time when a correlation measure reaches a threshold, wherein the correlation measure describes with regard to the room impulse response a similarity of a decay in acoustic energy including an initial state and of the decay in acoustic energy starting at a point in time, said point in time following the initial state over a predefined frequency range, wherein the threshold is set dependent on the correlation measure for said point in time, said point in time being a time of a selected one of the early reflections in the early part of the room impulse response , and wherein the selected one of the early reflections is the first reflection .
Method for mounting coupling elements of a rail vehicle, in which a vehicle body is braced by means of coupling elements on a support structure of the rail vehicle, wherein at least one coupling element is connected to the support structure by means of a form-fit and/or force-fit connection , characterised in that by means of a lifting apparatus , which is braced on a part of the support structure embodied as a bracing element , the vehicle body is lifted during the mounting procedure, that the coupling element is a secondary suspension of the rail vehicle and that the vehicle body is lifted to the extent that a gap is formed between the coupling element and the support structure and that an insert is inserted into this gap and the vehicle body is subsequently lowered again.