mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger adapted to perform heat exchange between a supply air flow and an exhaust air flow, the heat exchanger comprising: a heat exchange element in a prism shape; a plurality of frame bars , each of the plurality of frame bars being attached to a corresponding side of the heat exchange element , the corresponding side extending along an axial direction of the heat exchange element ; and an end face plate adapted to cover at least partially an axial end face of the heat exchange element , and the plurality of frame bars are joined to the end face plate , characterised in that the frame bars are joined to the end face plate in such a way as to be movable in the axial direction of the heat exchange element . a heat exchange element in a prism shape; a plurality of frame bars , each of the plurality of frame bars being attached to a corresponding side of the heat exchange element , the corresponding side extending along an axial direction of the heat exchange element ; and an end face plate adapted to cover at least partially an axial end face of the heat exchange element , and the plurality of frame bars are joined to the end face plate , characterised in that the frame bars are joined to the end face plate in such a way as to be movable in the axial direction of the heat exchange element .
A method performed by a user equipment, UE , in a wireless communication system supporting carrier aggregation, the method comprising: receiving , from a base station , a radio resource control, RRC, message including information on a timing advance group, TAG, of at least one secondary cell; determining whether valid uplink transmission timing associated with the at least one secondary cell is maintained; the method being characterized by : not performing any uplink transmission on the at least one secondary cell except a random access preamble transmission which is indicated by a physical downlink control channel, PDCCH, order received from the base station in case that the valid uplink transmission timing associated with the at least one secondary cell is not maintained. receiving , from a base station , a radio resource control, RRC, message including information on a timing advance group, TAG, of at least one secondary cell; determining whether valid uplink transmission timing associated with the at least one secondary cell is maintained; the method being characterized by : not performing any uplink transmission on the at least one secondary cell except a random access preamble transmission which is indicated by a physical downlink control channel, PDCCH, order received from the base station in case that the valid uplink transmission timing associated with the at least one secondary cell is not maintained.
A method of preparing low-molecular weight hyaluronic acid having a number average molecular weight of 100,000 to 200,000 Daltons, the method comprising: thermally treating, in a range of pH 2.5 to 3.5, an aqueous solution that contains hyaluronic acid having a number average molecular weight of 500,000~3,000,000 Daltons, wherein a concentration of the aqueous solution is 1 to 2 % (weight/volume). wherein the thermally treating is performed at 80 to 90 °C. wherein the thermally treating is performed for 15 to 30 minutes. wherein a concentration of the aqueous solution is 1 to 2 % (weight/volume). wherein the thermally treating is performed at 80 to 90 °C. wherein the thermally treating is performed for 15 to 30 minutes.
An energy dissipating link , comprising: an elongated base having opposite, first and second end portions ; and a plurality of touch fasteners (208a-c,408b-c,608a-c,708a-c,808a-c,908a-b) permanently coupled to the base and releasably engageable with at least one other of touch fastener (208a-c,408b-c,608a-c,708a-c,808a-c,908a-b,12), wherein, when the link is in a primed state, the plurality of touch fasteners forms separate and independent first and second closures, each of the first and second closures comprised of engagements between respective fastening elements of two or more touch fasteners, and wherein the plurality of touch fasteners is configured such that, in response to a tensile overload applied to the end portions of the base, the touch fasteners of the first and second closures engaged in the primed state of the link are progressively disengaged, with at least a portion of one touch fastener of the second closure re-engaging with at least a portion of one touch fastener of the first closure as the tensile overload is applied. an elongated base having opposite, first and second end portions ; and a plurality of touch fasteners (208a-c,408b-c,608a-c,708a-c,808a-c,908a-b) permanently coupled to the base and releasably engageable with at least one other of touch fastener (208a-c,408b-c,608a-c,708a-c,808a-c,908a-b,12), wherein, when the link is in a primed state, the plurality of touch fasteners forms separate and independent first and second closures, each of the first and second closures comprised of engagements between respective fastening elements of two or more touch fasteners, and wherein the plurality of touch fasteners is configured such that, in response to a tensile overload applied to the end portions of the base, the touch fasteners of the first and second closures engaged in the primed state of the link are progressively disengaged, with at least a portion of one touch fastener of the second closure re-engaging with at least a portion of one touch fastener of the first closure as the tensile overload is applied.
A turbine assembly comprising: a turbine wheel; a valve plug ; and an aluminum alloy turbine housing that comprises; an inlet for exhaust; a turbine wheel space configured to receive exhaust via the inlet ; a wastegate opening configured to receive exhaust via the inlet and to provide received exhaust to a wastegate chamber ; and a locally hardened valve seat surrounding the wastegate opening ; characterised in that the locally hardened valve seat comprises aluminum nitride. a turbine wheel; a valve plug ; and an aluminum alloy turbine housing that comprises; an inlet for exhaust; a turbine wheel space configured to receive exhaust via the inlet ; a wastegate opening configured to receive exhaust via the inlet and to provide received exhaust to a wastegate chamber ; and a locally hardened valve seat surrounding the wastegate opening ; characterised in that the locally hardened valve seat comprises aluminum nitride.
A method carried out within a user equipment, comprising: operating the user equipment to initiate monitoring, according to a given discontinuous reception operation, of a control channel associated with a particular component carrier for determining if the user equipment is scheduled by the control channel associated with the particular component carrier; and characterized by , in response to determining by the user equipment that the user equipment is not scheduled , autonomously terminating by the user equipment the monitoring according to the given discontinuous reception operation of the control channel associated with the particular component carrier and deactivating use of the particular component carrier. operating the user equipment to initiate monitoring, according to a given discontinuous reception operation, of a control channel associated with a particular component carrier for determining if the user equipment is scheduled by the control channel associated with the particular component carrier; and characterized by , in response to determining by the user equipment that the user equipment is not scheduled , autonomously terminating by the user equipment the monitoring according to the given discontinuous reception operation of the control channel associated with the particular component carrier and deactivating use of the particular component carrier.
A method for controlling a temperature regulating device, wherein the method comprises: receiving a body temperature of a user sent by a wearable system, wherein the body temperature of the user comprises an in vivo temperature of the user and a skin temperature of the user; obtaining a control parameter of the temperature regulating device according to the body temperature of the user; and controlling the temperature regulating device according to the control parameter. receiving a body temperature of a user sent by a wearable system, wherein the body temperature of the user comprises an in vivo temperature of the user and a skin temperature of the user; obtaining a control parameter of the temperature regulating device according to the body temperature of the user; and controlling the temperature regulating device according to the control parameter.
A device to be inserted into the aortic arch for deflecting emboli, the device comprising: a lateral structure defining a lateral plane comprising a first end and a second end to support an emboli filter , the lateral structure has a length and the emboli filter is attached to and extending the length of said lateral structure ; a lower member extending downward from said lateral structure in a direction of an ascending aorta when inserted into the arch, wherein upon installation of said device, said lower member exerts lift on a middle area of said lateral structure; and an upper member extending upwards from said lateral structure extending into an innominate artery upon deployment, wherein a support portion of said upper member being proximate to said lateral structure rises away from said lateral structure at an angle towards the first end of said device, characterized in an anchor portion of said upper member being distal to said lateral structure double back on said support portion at a bend and rises upward and towards a direction of the second end of said device, wherein upon said installation, said upper member limits said lift. a lateral structure defining a lateral plane comprising a first end and a second end to support an emboli filter , the lateral structure has a length and the emboli filter is attached to and extending the length of said lateral structure ; a lower member extending downward from said lateral structure in a direction of an ascending aorta when inserted into the arch, wherein upon installation of said device, said lower member exerts lift on a middle area of said lateral structure; and an upper member extending upwards from said lateral structure extending into an innominate artery upon deployment, wherein a support portion of said upper member being proximate to said lateral structure rises away from said lateral structure at an angle towards the first end of said device, characterized in an anchor portion of said upper member being distal to said lateral structure double back on said support portion at a bend and rises upward and towards a direction of the second end of said device, wherein upon said installation, said upper member limits said lift.
A nebulizer for delivering aerosol medication to patients via the respiratory system, comprising a porous medium configured to produce aerosols, and a gas channel configured to introduce pressure gradient to the porous medium, characterized in that the nebulizer further comprises a displaceable wetting mechanism configured to spread a liquid over the porous medium thereby to wet the porous medium , wherein the displaceable wetting mechanism comprises a rotatable elongated member configured to move across the surface of the porous medium , thereby to homogeneously or semi-homogeneously spread the liquid over the surface.
A computer-implemented method for routing an aerial vehicle based on a relative noise impact comprising: retrieving environmental noise map data for a geographic area, wherein the environmental noise map data indicates existing noise levels (203a-203d, 601c-601d) measured in the geographic area, determining a vehicle noise characteristic of the aerial vehicle ; and generating a route for the aerial vehicle over the geographic area based on the relative noise impact of the aerial vehicle while operating over the geographic area, wherein the relative noise impact is computed based on the vehicle noise characteristic relative to the existing noise levels (203a-203d, 601c-601d) of the environmental noise map data for portions of the geographic area under the route of the aerial vehicle , characterized in that the route is generated by using a locally relevant ratio of the noise impact on the ground generated by the aerial vehicle over the existing noise levels on the ground for the portions of the geographic area and according to a condition to minimize the ratio along the route taken by the aerial vehicle by adapting the route path or altitude. retrieving environmental noise map data for a geographic area, wherein the environmental noise map data indicates existing noise levels (203a-203d, 601c-601d) measured in the geographic area, determining a vehicle noise characteristic of the aerial vehicle ; and generating a route for the aerial vehicle over the geographic area based on the relative noise impact of the aerial vehicle while operating over the geographic area, wherein the relative noise impact is computed based on the vehicle noise characteristic relative to the existing noise levels (203a-203d, 601c-601d) of the environmental noise map data for portions of the geographic area under the route of the aerial vehicle , characterized in that the route is generated by using a locally relevant ratio of the noise impact on the ground generated by the aerial vehicle over the existing noise levels on the ground for the portions of the geographic area and according to a condition to minimize the ratio along the route taken by the aerial vehicle by adapting the route path or altitude.
A method for surface-modifying an object made of a rubber vulcanizate or a thermoplastic elastomer, the method comprising: step 1 of forming polymerization initiation points on a surface of the object; and step 2 of radically polymerizing a halogen-containing deliquescent monomer, starting from the polymerization initiation points, by irradiation with ultraviolet light having a wavelength within the range of 300 to 400 nm to grow polymer chains on the surface of the object, wherein the deliquescent monomer is a compound represented by the following formula (I) : wherein A represents an oxygen atom or NH; B represents a C 1 -C 4 alkylene group; R 11 represents a hydrogen atom or a methyl group; R 12 , R 13 , and R 14 are the same as or different from one another and each represent a C 1 -C 4 alkyl group; and X - represents a halogen ion. step 1 of forming polymerization initiation points on a surface of the object; and step 2 of radically polymerizing a halogen-containing deliquescent monomer, starting from the polymerization initiation points, by irradiation with ultraviolet light having a wavelength within the range of 300 to 400 nm to grow polymer chains on the surface of the object, wherein the deliquescent monomer is a compound represented by the following formula (I) : wherein A represents an oxygen atom or NH; B represents a C 1 -C 4 alkylene group; R 11 represents a hydrogen atom or a methyl group; R 12 , R 13 , and R 14 are the same as or different from one another and each represent a C 1 -C 4 alkyl group; and X - represents a halogen ion.
A tubular handling system , comprising: a power tong configured to engage and rotate an add-on tubular by applying a torque thereto, the power tong defining a central opening configured to receive the add-on tubular therethrough; wherein the tubular handling system further comprises a spider disposed at a rig floor, the spider being configured to support a tubular string and transmit a reactionary torque to the tubular string, when supporting the tubular string, the reactionary torque being generated in reaction to the torque applied by the power tong ; a lifting assembly coupled with the power tong and configured to move the power tong vertically with respect to the tubular string and the spider , wherein the lifting assembly transmits the reactionary torque from the power tong to the spider ; and a torque-measuring device configured to measure the reactionary torque transmitted from the power tong to the lifting assembly and from the lifting assembly to the spider . a power tong configured to engage and rotate an add-on tubular by applying a torque thereto, the power tong defining a central opening configured to receive the add-on tubular therethrough; wherein the tubular handling system further comprises a spider disposed at a rig floor, the spider being configured to support a tubular string and transmit a reactionary torque to the tubular string, when supporting the tubular string, the reactionary torque being generated in reaction to the torque applied by the power tong ; a lifting assembly coupled with the power tong and configured to move the power tong vertically with respect to the tubular string and the spider , wherein the lifting assembly transmits the reactionary torque from the power tong to the spider ; and a torque-measuring device configured to measure the reactionary torque transmitted from the power tong to the lifting assembly and from the lifting assembly to the spider .
A protection member and conductive plate assembling structure of rail terminal, comprising: a conductive plate having at least one assembling end , at least one connected section being disposed on one side of the assembling end ; and a protection member having an assembling passage for the assembling end to extend therein, a contact wall being disposed on one side of the assembling passage for attaching to the assembling end , one side of the contact wall being bent and connected with a sidewall in adjacency to the connected section , the sidewall being formed with an elastic connection section corresponding to the connected section so that afer the assembling end of the conductive plate is inserted into the assembling passage , the elastic connection section has elastically restored to its home position and the connected section is engaged and located by the elastic connection section , characterized in that a single sidewall is formed with the elastic connection section corresponding to the connected section and so that when the assembling end of the conductive plate is inserted into the assembling passage , the connected section pushes and passes through the elastic connection section , whereby after the elastic connection section elastically restores to its home position, the connected section is engaged and located by the elastic connection section so that the protection member and the conductive plate can be securely connected with each other. a conductive plate having at least one assembling end , at least one connected section being disposed on one side of the assembling end ; and a protection member having an assembling passage for the assembling end to extend therein, a contact wall being disposed on one side of the assembling passage for attaching to the assembling end , one side of the contact wall being bent and connected with a sidewall in adjacency to the connected section , the sidewall being formed with an elastic connection section corresponding to the connected section so that afer the assembling end of the conductive plate is inserted into the assembling passage , the elastic connection section has elastically restored to its home position and the connected section is engaged and located by the elastic connection section , characterized in that a single sidewall is formed with the elastic connection section corresponding to the connected section and so that when the assembling end of the conductive plate is inserted into the assembling passage , the connected section pushes and passes through the elastic connection section , whereby after the elastic connection section elastically restores to its home position, the connected section is engaged and located by the elastic connection section so that the protection member and the conductive plate can be securely connected with each other.
A partitioning wall element for a partitioning wall installation , wherein the partitioning wall element includes a telescoping element , which is deployable in a horizontal direction, wherein the telescoping element comprises a pressure beam and a screen profile , wherein the screen profile is retained in or at the pressure beam , wherein the screen profile comprises at least one first screen holding means , which, in particular in a latching manner, cooperates with at least one corresponding pressure beam holding means of the pressure beam , wherein the pressure beam holding means and the screen holding means cooperate in such a manner that the screen profile is retainable in a first position (V) in or at the pressure beam , in particular latchable, in which position is formed a first distance (A1) between a first abutment section of the pressure beam and the screen profile , and in a second position (VI), is retainable, in particular latchable, in or at the pressure beam , in which position is formed a second distance (A2) between the first abutment section of the pressure beam and the screen profile , wherein a second screen holding means is provided, wherein the first screen holding means comprises a first web and the second screen holding means comprises a second web , wherein the first screen holding means includes a form closure means , which is configured at the web, and the second screen holding means includes a second form closure means , which is configured at the second web , characterized in that the first form closure means is disposed at a first height (H1) at the first web and the second form closure means at a second height (H2) at the second web , wherein the first height (H1) is different from the second height (H2)
A chip-scale inertial sensor for detecting a rate of rotation of the inertial sensor about an axis, the inertial sensor comprising: an optical vibratory gyroscope for detecting a first rate of rotation of the inertial sensor about the axis, the optical vibratory gyroscope configured to output a main signal corresponding to the first rate of rotation; an optical Sagnac gyroscope for concurrently detecting a second rate of rotation of the inertial sensor about the axis, the optical Sagnac gyroscope configured to output a supplementary signal corresponding to the second rate of rotation; and a microcontroller configured to: receive one or more inputs based on the main signal and supplementary signal; and determine, based on the one or more inputs, a corrected first rate of rotation of the inertial sensor about the axis. an optical vibratory gyroscope for detecting a first rate of rotation of the inertial sensor about the axis, the optical vibratory gyroscope configured to output a main signal corresponding to the first rate of rotation; an optical Sagnac gyroscope for concurrently detecting a second rate of rotation of the inertial sensor about the axis, the optical Sagnac gyroscope configured to output a supplementary signal corresponding to the second rate of rotation; and a microcontroller configured to: receive one or more inputs based on the main signal and supplementary signal; and determine, based on the one or more inputs, a corrected first rate of rotation of the inertial sensor about the axis. receive one or more inputs based on the main signal and supplementary signal; and determine, based on the one or more inputs, a corrected first rate of rotation of the inertial sensor about the axis.