mhurhangee/patent-ind-claim-en huggingface dataset:
Lid for a container made of metal and able to contain a substance, comprising: - a closing element defined by a line of incision provided with a front portion , - an opening lever disposed astride the line of incision and comprising a fulcrum front end disposed at the front of the front portion , and an intermediate region provided with a flexible tongue attached to the closing element , - a mechanical element configured to attach the flexible tongue mechanically to the closing element , and provided with an upper abutment head , which is configured to cooperate with said flexible tongue and is delimited peripherally by an external periphery , wherein said line of incision has at the front, in the zone where pulling and lifting starts, in correspondence to said mechanical element , a portion protruding outside, toward the fulcrum front end of the opening lever , characterized in that said mechanical element is disposed essentially tangent to the front portion of the line of incision , providing that said external periphery of the upper abutment head is located or falls inside the cross section of said line of incision in the most advanced extension of the external periphery toward the fulcrum front end of the opening lever , and in that said mechanical element is essentially tangent to said protruding portion of said line of incision . - a closing element defined by a line of incision provided with a front portion , - an opening lever disposed astride the line of incision and comprising a fulcrum front end disposed at the front of the front portion , and an intermediate region provided with a flexible tongue attached to the closing element , - a mechanical element configured to attach the flexible tongue mechanically to the closing element , and provided with an upper abutment head , which is configured to cooperate with said flexible tongue and is delimited peripherally by an external periphery , wherein said line of incision has at the front, in the zone where pulling and lifting starts, in correspondence to said mechanical element , a portion protruding outside, toward the fulcrum front end of the opening lever ,
Self-controlled three-way thermostat assembly which, comprising a primary thermo-actuator , a secondary thermo-actuator , a valve structure which's position specifies the coolant flow direction, a frame structure guiding the mentioned valve structure, an outer sealing element preventing coolant leakages from the inner space of the mentioned frame to outside, a spring storing the kinetic energy of the stroke as potential energy when it is compressed as a result of the total stroke of mentioned two thermo-actuators, an inner sealing element preventing coolant leakages, and is characterized by comprising a tube wrapping said thermo-actuators, in which mentioned primary thermo-actuator and secondary thermo-actuator are inserted as back to back each other, that said thermo-actuators have different actuation-temperature values from each other for starting to open and for being fully open. comprising a tube wrapping said thermo-actuators, in which mentioned primary thermo-actuator and secondary thermo-actuator are inserted as back to back each other, that said thermo-actuators have different actuation-temperature values from each other for starting to open and for being fully open.
A bulkhead configured to be disposed between an engine compartment and a passenger compartment , the bulkhead comprising: a support structure defining a first support side configured to face the engine compartment , and a second support side opposite the first support side, the support structure including at least one reinforcement member and a body supported by the reinforcement member ; a thermally insulative component supported by the first support side of the support structure ; and an acoustic resonator defining a first resonator side that faces the support structure , a second resonator side that faces the thermally insulative component , and a plurality of openings that extend along a first direction from the second resonator side toward the first resonator side and terminate at a location between the first resonator side and the second resonator side, wherein the acoustic resonator includes a plurality of cells that each defines a respective first open volume that is in fluid communication with at least one of the plurality of openings , characterized in that each of the plurality of openings defines a respective cross-sectional area along a first plane that is oriented perpendicular to the first direction, each of the respective first open volumes defines a respective cross-sectional area along a second plane that is parallel to the first plane, and the respective cross-sectional area of each of the plurality of openings is less than the respective cross-sectional area of each of the first open volumes . a support structure defining a first support side configured to face the engine compartment , and a second support side opposite the first support side, the support structure including at least one reinforcement member and a body supported by the reinforcement member ; a thermally insulative component supported by the first support side of the support structure ; and an acoustic resonator defining a first resonator side that faces the support structure , a second resonator side that faces the thermally insulative component , and a plurality of openings that extend along a first direction from the second resonator side toward the first resonator side and terminate at a location between the first resonator side and the second resonator side, wherein the acoustic resonator includes a plurality of cells that each defines a respective first open volume that is in fluid communication with at least one of the plurality of openings , characterized in that each of the plurality of openings defines a respective cross-sectional area along a first plane that is oriented perpendicular to the first direction, each of the respective first open volumes defines a respective cross-sectional area along a second plane that is parallel to the first plane, and the respective cross-sectional area of each of the plurality of openings is less than the respective cross-sectional area of each of the first open volumes .
A line penetration for routing a line through a building part , especially a wall or a ceiling of a building, comprising: - a closure plate for covering a passage opening in the building part , wherein the closure plate has at least one line opening for receiving the line ; - a fastening arrangement , which can be fastened to the building part, for holding the closure plate , so that a relative displacement of the closure plate along a surface direction (F) of the closure plate is permitted and the closure plate is fixed perpendicular to the surface direction (F) of the closure plate , characterised in that the fastening arrangement comprises at least one fastening device , wherein the fastening device has a fixation pin with a shank and a fixation head , wherein the shank protrudes through a fastening opening in the closure plate and the fixation head overlaps the fixation opening , in order to hold the closure plate . - a closure plate for covering a passage opening in the building part , wherein the closure plate has at least one line opening for receiving the line ; - a fastening arrangement , which can be fastened to the building part, for holding the closure plate , so that a relative displacement of the closure plate along a surface direction (F) of the closure plate is permitted and the closure plate is fixed perpendicular to the surface direction (F) of the closure plate ,
An ultrasound diagnosis apparatus comprising: a high voltage power source; a transmission circuit configured to receive power from the high voltage power source, generate a pulse generating an ultrasound wave, and apply the ultrasound wave to a probe in the ultrasound diagnosis apparatus; a power circuit configured to receive the power from the high voltage power source and be charged with electric energy when the ultrasound diagnosis apparatus operates in a shear wave mode, and supply, to the transmission circuit, shear wave mode power used for generating a shear wave, based on the electric energy; and a processor configured to control the power circuit configured to supply the shear wave mode power when the shear wave mode is in operation, wherein the processor is further configured to control the high voltage power source and the power circuit such that insufficient power of the shear wave mode power is supplied from the high voltage power source to the transmission circuit and the shear wave mode power is constantly supplied to the transmission circuit. a high voltage power source; a transmission circuit configured to receive power from the high voltage power source, generate a pulse generating an ultrasound wave, and apply the ultrasound wave to a probe in the ultrasound diagnosis apparatus; a power circuit configured to receive the power from the high voltage power source and be charged with electric energy when the ultrasound diagnosis apparatus operates in a shear wave mode, and supply, to the transmission circuit, shear wave mode power used for generating a shear wave, based on the electric energy; and a processor configured to control the power circuit configured to supply the shear wave mode power when the shear wave mode is in operation, wherein the processor is further configured to control the high voltage power source and the power circuit such that insufficient power of the shear wave mode power is supplied from the high voltage power source to the transmission circuit and the shear wave mode power is constantly supplied to the transmission circuit.
A computer readable medium storing a computer instruction that allows a terminal device to perform an operation when being executed by a processor of the terminal device, the operation comprising: based on an application being executed in the terminal device , receiving information regarding whether a first application is installed in a display device communicatively connected to the terminal device wherein the display device is a TV; and providing a UI screen for at least one of executing the first application or installing the first application in the display device on an execution screen of the application based or the received information; wherein the application Z being executed in the terminal device is arranged to be in communication with the first application in the display device; characterized in that the application being executed in the terminal device and the first application in the display device execute together to produce a convergent multiscreen user experience with the applications. based on an application being executed in the terminal device , receiving information regarding whether a first application is installed in a display device communicatively connected to the terminal device wherein the display device is a TV; and providing a UI screen for at least one of executing the first application or installing the first application in the display device on an execution screen of the application based or the received information; wherein the application Z being executed in the terminal device is arranged to be in communication with the first application in the display device; characterized in that the application being executed in the terminal device and the first application in the display device execute together to produce a convergent multiscreen user experience with the applications.
A process for the purification of a feed comprising monochloroacetic acid and dichloroacetic acid wherein the feed is subjected to a catalytic hydrodechlorination step by contacting it with a source of hydrogen to convert dichloroacetic acid into monochloroacetic acid in the presence of a solid heterogeneous hydrogenation catalyst comprising a Group VIII noble metal on a carrier under hydrodechlorination conditions, wherein the reaction is carried out in the presence of a catalyst enhancer which comprises a salt of a metal selected from the group of non-noble metals of Group VIII, Group VIB, Group VIIB, and Group IIB.
A communication device , comprising a code constructor and a channel encoder , wherein the channel encoder is configured to encode a number of input symbols u to a number of output symbols x using a Polar Code of a code length N with a transformation matrix G N , wherein the code constructor is configured to compose the transformation matrix G N from at least two different Polar Code Kernels, wherein the code constructor is configured to compose the transformation matrix G N from at least one Polar Code Kernel of a dimension of 2 and of at least one Polar Code Kernel of a dimension of 3, wherein the code constructor is configured to compose the transformation matrix G N by performing a Kronecker product of the Polar Code Kernels, wherein code constructor comprises a Kernel order determiner , configured to determine an order of performing the Kronecker product of the Polar Code Kernels by optimizing a code performance or by performing a density evolution analysis over at least some of all possible permutations of the Polar Code Kernels. wherein the channel encoder is configured to encode a number of input symbols u to a number of output symbols x using a Polar Code of a code length N with a transformation matrix G N , wherein the code constructor is configured to compose the transformation matrix G N from at least two different Polar Code Kernels, wherein the code constructor is configured to compose the transformation matrix G N from at least one Polar Code Kernel of a dimension of 2 and of at least one Polar Code Kernel of a dimension of 3, wherein the code constructor is configured to compose the transformation matrix G N by performing a Kronecker product of the Polar Code Kernels, wherein code constructor comprises a Kernel order determiner , configured to determine an order of performing the Kronecker product of the Polar Code Kernels by optimizing a code performance or by performing a density evolution analysis over at least some of all possible permutations of the Polar Code Kernels.
A catalyst composition represented by the general formula XVO 4 /S wherein X stands for Fe and S is a support comprising TiO 2 , characterized in that said support contains TiO 2 in an amount of at least 55 wt.-%, WO 3 in an amount of 1-20 wt.-%, and optionally SiO 2 in an amount of up to 20 wt.-%, said catalyst composition containing XVO 4 in an amount between 0.2 % by weight and 25 % by weight. X stands for Fe and S is a support comprising TiO 2 , characterized in that said support contains TiO 2 in an amount of at least 55 wt.-%, WO 3 in an amount of 1-20 wt.-%, and optionally SiO 2 in an amount of up to 20 wt.-%, said catalyst composition containing XVO 4 in an amount between 0.2 % by weight and 25 % by weight.
A chewable product for oral delivery of a substance, the chewable product comprising: a dry-laid needled nonwoven fabric substrate having a matrix of interleaved fibres, wherein the nonwoven fabric substrate has a thickness of 1-2 mm; and a substance held within the matrix, wherein the substance is releasable from the matrix by a chewing action. a dry-laid needled nonwoven fabric substrate having a matrix of interleaved fibres, wherein the nonwoven fabric substrate has a thickness of 1-2 mm; and a substance held within the matrix, wherein the substance is releasable from the matrix by a chewing action.
A hydraulic pump system , comprising: a variable displacement hydraulic pump for pumping hydraulic fluid; a fluid-operated control fluidly connected to the hydraulic pump and configured to increase or decrease pump displacement in response to a hydraulic fluid pressure of the system being communicated to the fluid-operated control ; and a thermally-responsive control component made with a thermally-responsive material, the thermally-responsive control component being located in the hydraulic pump system such that the thermally-responsive material is in thermal communication with the hydraulic fluid flowing through the hydraulic pump system for effecting a change in temperature of the thermally-responsive material; wherein the thermally-responsive material is configured to have an activation temperature that is a predefined amount less than a maximum operating temperature of the hydraulic fluid flowing through the hydraulic pump system; and wherein the thermally-responsive control component is configured to cooperate with the fluid-operated control to cause a decrease in pump output pressure in response to the thermally-responsive material being heated by the hydraulic fluid to a temperature that is equal to or greater than the activation temperature of the thermally-responsive material, and wherein the hydraulic pump system can remain operational after the thermally-responsive material has reached or exceeded the activation temperature. a variable displacement hydraulic pump for pumping hydraulic fluid; a fluid-operated control fluidly connected to the hydraulic pump and configured to increase or decrease pump displacement in response to a hydraulic fluid pressure of the system being communicated to the fluid-operated control ; and a thermally-responsive control component made with a thermally-responsive material, the thermally-responsive control component being located in the hydraulic pump system such that the thermally-responsive material is in thermal communication with the hydraulic fluid flowing through the hydraulic pump system for effecting a change in temperature of the thermally-responsive material; wherein the thermally-responsive material is configured to have an activation temperature that is a predefined amount less than a maximum operating temperature of the hydraulic fluid flowing through the hydraulic pump system; and wherein the thermally-responsive control component is configured to cooperate with the fluid-operated control to cause a decrease in pump output pressure in response to the thermally-responsive material being heated by the hydraulic fluid to a temperature that is equal to or greater than the activation temperature of the thermally-responsive material, and wherein the hydraulic pump system can remain operational after the thermally-responsive material has reached or exceeded the activation temperature.
A gas turbine bearing assembly comprising: a sleeve for an oil bearing damper ; a bearing ; and a housing , wherein the housing is proximate the bearing and the bearing has an oil bearing damper and supports a shaft , wherein the sleeve comprises: a cylinder shaped body having a forward end opposite an aft end , said body including an interior surface opposite an exterior surface , said body being inserted between the oil bearing damper proximate said interior surface and a bore of the housing proximate said exterior surface ; a ring portion proximate said forward end , said ring portion having an outer diameter larger than a diameter of said body ; characterised in that : the sleeve further comprises: an extension portion configured to provide an active damper surface extending beyond said housing bore; and a seal receiver formed in said interior surface proximate said ring portion at said forward end , wherein said seal receiver is configured as a chamfer to receive a seal installed in a seal groove of the oil bearing damper . a sleeve for an oil bearing damper ; a bearing ; and a housing , wherein the housing is proximate the bearing and the bearing has an oil bearing damper and supports a shaft , wherein the sleeve comprises: a cylinder shaped body having a forward end opposite an aft end , said body including an interior surface opposite an exterior surface , said body being inserted between the oil bearing damper proximate said interior surface and a bore of the housing proximate said exterior surface ; a ring portion proximate said forward end , said ring portion having an outer diameter larger than a diameter of said body ; characterised in that : a cylinder shaped body having a forward end opposite an aft end , said body including an interior surface opposite an exterior surface , said body being inserted between the oil bearing damper proximate said interior surface and a bore of the housing proximate said exterior surface ; a ring portion proximate said forward end , said ring portion having an outer diameter larger than a diameter of said body ; characterised in that : the sleeve further comprises: an extension portion configured to provide an active damper surface extending beyond said housing bore; and a seal receiver formed in said interior surface proximate said ring portion at said forward end , wherein said seal receiver is configured as a chamfer to receive a seal installed in a seal groove of the oil bearing damper . an extension portion configured to provide an active damper surface extending beyond said housing bore; and a seal receiver formed in said interior surface proximate said ring portion at said forward end , wherein said seal receiver is configured as a chamfer to receive a seal installed in a seal groove of the oil bearing damper .
A method for receiving, at a receiving device limited to operation within a subband of a frequency range of potential operation during a single subframe, the subband being smaller than the frequency range, the method for receiving a control information message from a transmitting device using reception resources being arranged over different subbands in different subframes, the method comprising: monitoring at the receiving device, a first plurality of reception resources contained in a first subband in a first subframe for a first portion of the control information message and a second plurality of reception resources contained in a second subband in a second subframe for a second portion of the control information message; and receiving at the receiving device the control information message in the monitored reception resources, the control information message formed from the first portion and the second portion; wherein the first subband is at least partly non-overlapping with the second subband. monitoring at the receiving device, a first plurality of reception resources contained in a first subband in a first subframe for a first portion of the control information message and a second plurality of reception resources contained in a second subband in a second subframe for a second portion of the control information message; and receiving at the receiving device the control information message in the monitored reception resources, the control information message formed from the first portion and the second portion; wherein the first subband is at least partly non-overlapping with the second subband.
Dielectric composition having a perovskite crystal structure and containing at least Bi, Na, Sr and Ti, whereby said dielectric composition comprises at least one selected from among La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Yb, Ba, Ca, Mg and Zn; characterised in that said dielectric composition comprises single phase particles which do not have a core-shell structure and specific particles, the specific particles having a core-shell structure that has at least one core portion comprising SrTiO 3 ; and α < 0.20, where α is the ratio of the number of specific particles with respect to the total number of particles contained in the dielectric composition.