mhurhangee/patent-ind-claim-en huggingface dataset:
Biaxially oriented film, comprising at least one layer (A) and at least one layer (B), wherein layer (A) contains at least one first polyethylene (PE-1) and layer (B) contains at least one high molecular weight polyethylene (PE-H) which comprises at least one second polyethylene (PE-2), and wherein layer (A) contains at least 50 weight per cent of the at least one first polyethylene (PE-1) based on the total weight of the layer (A), layer (B) contains at least 50 weight per cent of the at least one high molecular weight polyethylene (PE-H) based on the total weight of the layer (B), and the at least one high molecular weight polyethylene (PE-H) contains at least 50 weight per cent of the at least one second polyethylene (PE-2) based on the total weight of the at least one high molecular weight polyethylene (PE-H), and wherein the at least one first polyethylene (PE-1) has a weight-average molecular weight (Mw) in the range from 200,000 g/mol to 600,000 g/mol, the at least one second polyethylene (PE-2) has a weight-average molecular weight (Mw) in the range from 400,000 g/mol to 1,500,000 g/mol and the at least one high molecular weight polyethylene (PE-H) and the at least one second polyethylene (PE-2) each have a weight-average molecular weight that is higher than the weight-average molecular weight of the at least one first polyethylene (PE-1), and wherein the film has a porosity in the range from 30% to 70%, determined as specified in the description, and term polyethylene also includes copolymers that contain up to 10 per cent by weight of alpha-olefins in addition to ethylene. layer (A) contains at least one first polyethylene (PE-1) and layer (B) contains at least one high molecular weight polyethylene (PE-H) which comprises at least one second polyethylene (PE-2), and wherein layer (A) contains at least 50 weight per cent of the at least one first polyethylene (PE-1) based on the total weight of the layer (A), layer (B) contains at least 50 weight per cent of the at least one high molecular weight polyethylene (PE-H) based on the total weight of the layer (B), and the at least one high molecular weight polyethylene (PE-H) contains at least 50 weight per cent of the at least one second polyethylene (PE-2) based on the total weight of the at least one high molecular weight polyethylene (PE-H), and wherein the at least one first polyethylene (PE-1) has a weight-average molecular weight (Mw) in the range from 200,000 g/mol to 600,000 g/mol, the at least one second polyethylene (PE-2) has a weight-average molecular weight (Mw) in the range from 400,000 g/mol to 1,500,000 g/mol and the at least one high molecular weight polyethylene (PE-H) and the at least one second polyethylene (PE-2) each have a weight-average molecular weight that is higher than the weight-average molecular weight of the at least one first polyethylene (PE-1), and wherein the film has a porosity in the range from 30% to 70%, determined as specified in the description, and term polyethylene also includes copolymers that contain up to 10 per cent by weight of alpha-olefins in addition to ethylene.
A front fork (F) comprising: a fork main body in which a vehicle body tube and an axle tube are slidably fitted; a suspension spring (S) housed in the fork main body and interposed between the vehicle body tube and the axle tube ; a cap configured to close an end portion of the vehicle body tube ; a spring adjuster (A) rotatably mounted on a position eccentric to the center of the cap as viewed in an axial direction, having a screw portion disposed in an outer periphery protruded into the fork main body ; a plate (P) in which the screw portion of the spring adjuster (A) is screwed, configured to displace in the axial direction with respect to the cap by rotation of the spring adjuster (A) so as to change support positions of the suspension spring (S); and a tubular member disposed in an outer periphery of the plate (P), characterised in that , the plate (P) is brought into contact with an inner periphery of the tubular member at two points on both sides in a circumferential direction of the normal (N) of the tubular member that passes through at least a mounting center of the spring adjuster (A) in the Plate (P). a fork main body in which a vehicle body tube and an axle tube are slidably fitted; a suspension spring (S) housed in the fork main body and interposed between the vehicle body tube and the axle tube ; a cap configured to close an end portion of the vehicle body tube ; a spring adjuster (A) rotatably mounted on a position eccentric to the center of the cap as viewed in an axial direction, having a screw portion disposed in an outer periphery protruded into the fork main body ; a plate (P) in which the screw portion of the spring adjuster (A) is screwed, configured to displace in the axial direction with respect to the cap by rotation of the spring adjuster (A) so as to change support positions of the suspension spring (S); and a tubular member disposed in an outer periphery of the plate (P), characterised in that , the plate (P) is brought into contact with an inner periphery of the tubular member at two points on both sides in a circumferential direction of the normal (N) of the tubular member that passes through at least a mounting center of the spring adjuster (A) in the Plate (P).
A system for mobility management in a HetNet wireless communication system including: a source small cell in communication with a mobile device , wherein the source small cell is configured to: determine if an overlay macrocell , having an area that overlaps the source small cell and at least one target small cell needs to be prepared for handover in addition to the target small cell , wherein the determination is based on the mobility of the mobile device ; if the overlay macrocell needs to be prepared for handover, proactively prepare the overlay macrocell and the target small cell before handover so that it does not have to be accomplished at handover, which includes sending a handover command to the mobile device , wherein the overlay macrocell is prepared until cancelled by the source small cell if it does not want the mobile device to associate with the prepared overlay macrocell ; inform the mobile device of the identities of the prepared overlay macrocell and the prepared target small cell using radio resource control (RRC) messaging; and at handover, send the handover command to the mobile device . determine if an overlay macrocell , having an area that overlaps the source small cell and at least one target small cell needs to be prepared for handover in addition to the target small cell , wherein the determination is based on the mobility of the mobile device ; if the overlay macrocell needs to be prepared for handover, proactively prepare the overlay macrocell and the target small cell before handover so that it does not have to be accomplished at handover, which includes sending a handover command to the mobile device , wherein the overlay macrocell is prepared until cancelled by the source small cell if it does not want the mobile device to associate with the prepared overlay macrocell ; inform the mobile device of the identities of the prepared overlay macrocell and the prepared target small cell using radio resource control (RRC) messaging; and at handover, send the handover command to the mobile device .
Method for absorbing flammable working fluid in the housing of a device for operating an anti-clockwise refrigeration cycle, characterised in that - in response to a triggering signal, a poorly combustible or incombustible absorption liquid under high pressure is injected into the housing , - injection is maintained until a signal is given to stop injection, and - the absorption liquid that runs off is collected. - in response to a triggering signal, a poorly combustible or incombustible absorption liquid under high pressure is injected into the housing , - injection is maintained until a signal is given to stop injection, and - the absorption liquid that runs off is collected.
A method comprising: determining , by an electronic device, a user experience metric associated with content captured by at least one camera of the electronic device; determining a power draw of one or more components of the device relative to a predetermined power budget; adjusting a plurality of operating parameters of the device based on the predetermined power budget, characterized in that when the power draw exceeds the predetermined power budget, adjusting the at least one operating parameter of the device comprises: determining one or more operating parameters of the plurality of operating parameters that, when adjusted, produce the greatest change in the power draw of the device and the smallest change in the user experience metric relative to at least one other operating parameter of the plurality of operating parameters; adjusting the determined operating parameter; and in that the user experience metric is based on a user experience model having a plurality of factors associated with capturing or processing the content and provides an estimation of a user experience when viewing the content captured by the at least one camera determining , by an electronic device, a user experience metric associated with content captured by at least one camera of the electronic device; determining a power draw of one or more components of the device relative to a predetermined power budget; adjusting a plurality of operating parameters of the device based on the predetermined power budget, characterized in that when the power draw exceeds the predetermined power budget, adjusting the at least one operating parameter of the device comprises: determining one or more operating parameters of the plurality of operating parameters that, when adjusted, produce the greatest change in the power draw of the device and the smallest change in the user experience metric relative to at least one other operating parameter of the plurality of operating parameters; adjusting the determined operating parameter; and in that the user experience metric is based on a user experience model having a plurality of factors associated with capturing or processing the content and provides an estimation of a user experience when viewing the content captured by the at least one camera
A non-aqueous composition comprising: (i) particles formed of a carbonate salt; and (ii) an acid in solid form, characterized in that the acid is TXA-NH3 + (protonated tranexamic acid). (i) particles formed of a carbonate salt; and (ii) an acid in solid form,
Thermal exchange and thermal stratification system for a secondary fluid contained in a tank , such as a hot water tank, said tank having a top portion and a lower portion, said system comprising a secondary circuit , for the flow of the secondary fluid, said secondary circuit being apt at being in fluid connection with the top portion and the lower portion of said tank , said system further comprising a circulation pump , apt to act on said secondary circuit for the circulation of said secondary fluid from the lower portion to the top portion of said tank through said secondary circuit , a heat exchanger , apt to act on a portion of said secondary circuit for heating said secondary fluid before its introduction into the top portion of said tank , and a thermostatic mixing valve , apt to act on said secondary circuit so that, during use, said thermostatic mixing valve adjusts the temperature and the flow rate of said secondary fluid through said secondary circuit according to the thermal exchange with said heat exchanger for keeping the thermal stratification of the secondary fluid within said tank , said system being characterized in that said thermostatic mixing valve has a first inlet opening or warm inlet opening , in fluid connection with the portion of the secondary circuit apt at being in fluid connection with the top portion of the tank , a second inlet opening or cold inlet opening , in fluid connection with the portion of the secondary circuit apt at being in fluid connection with the lower portion of the tank , and an outlet opening , in fluid connection with a portion of the secondary circuit in fluid connection with the portion of the secondary circuit in correspondence with said heat exchanger , and in that said thermostatic mixing valve is configured so that, during use, when the temperature (Tc) of the secondary fluid in correspondence of said thermostatic mixing valve equals to or is lower than a first pre-set temperature (T1), said thermostatic mixing valve prevents the flow of said secondary fluid from the lower portion of said tank , in order to allow the remaining secondary fluid to circulate in said secondary circuit , only between said heat exchanger and said thermostatic mixing valve passing entirely by the first inlet opening to the outlet opening , for heating said secondary fluid, when the temperature (Tc) of the secondary fluid in correspondence of said thermostatic mixing valve is higher than said first pre-set temperature (T1), said thermostatic mixing valve varies the flow rate of said secondary fluid through it in a way proportional to the difference between the temperature (Tc) of the secondary fluid and the pre-set temperature (T1), for the introduction of said secondary fluid in the top portion of said tank for preserving the thermal stratification of said secondary fluid within said tank .
Arrangement having an outer frame with a window-casement or door-leaf frame , which comprises a push-rod fitting , which interacts with a handle and is assigned at least one locking bolt which, in at least one position of the handle , engages in a groove which is open on one side and is located in a locking part fastened on the outer frame , wherein the window-casement/door-leaf frame is designed to retain a bolt which, in a locking position , blocks the locking bolt in the groove of the locking part and, in an unlocking position , releases the same to provide for a possible change in position of the locking bolt .
An apparatus for sensing an elastic deformation of a hollow element , wherein the apparatus comprises at least one sensor that is arranged in a watertight capsule and measures a bending of the watertight capsule , the bending being directly transferred from the hollow element to the watertight capsule and allowing to determine the elastic deformation of the hollow element , wherein the watertight capsule is connected in a watertight manner to a connector device comprising at least one watertight electrical connector that is electrically connected to the at least one sensor , the at least one watertight electrical connector forming a first waterproof barrier of the connector device between an outside of the watertight capsule and the at least one sensor , wherein the connector device comprises at least one further waterproof barrier that is formed between the first waterproof barrier and the at least one sensor , and wherein the at least one further waterproof barrier comprises a second waterproof barrier that is formed by a sealed compartment of the connector device , the sealed compartment being arranged between the at least one watertight electrical connector and the at least one sensor .
A method for measuring a response from an optical fiber providing distributed back reflections using a system comprising an optical source comprising a laser , an optical receiver and a processing unit , the method comprises - establishing initial parameters of a distributed back-reflection processing, wherein distributed back-reflection processing comprises applying a pulse compression filter, - generating an interrogation signal and an optical local oscillator using the optical source , the interrogation signal being represented by an interrogation phasor and the optical local oscillator being represented by a local oscillator phasor, - transmitting the interrogation signal into the optical fiber , - mixing the optical local oscillator with reflected light from the optical fiber and detecting a mixing product with the optical receiver to achieve a receiver output signal, - performing a measurement that characterizes the interrogation phasor, - updating the parameters of the distributed back-reflection processing based on the measurement result such that an effect of fluctuations in the interrogation phasor on the measured response from the fiber is reduced, wherein updating the parameters of the distributed back-reflection processing comprises optimizing the pulse compression filter, - applying the distributed back-reflection processing to the receiver output signal , - extracting the response from the optical fiber from the distributed back-reflection processing output. - establishing initial parameters of a distributed back-reflection processing, wherein distributed back-reflection processing comprises applying a pulse compression filter, - generating an interrogation signal and an optical local oscillator using the optical source , the interrogation signal being represented by an interrogation phasor and the optical local oscillator being represented by a local oscillator phasor, - transmitting the interrogation signal into the optical fiber , - mixing the optical local oscillator with reflected light from the optical fiber and detecting a mixing product with the optical receiver to achieve a receiver output signal, - performing a measurement that characterizes the interrogation phasor, - updating the parameters of the distributed back-reflection processing based on the measurement result such that an effect of fluctuations in the interrogation phasor on the measured response from the fiber is reduced, wherein updating the parameters of the distributed back-reflection processing comprises optimizing the pulse compression filter, - applying the distributed back-reflection processing to the receiver output signal , - extracting the response from the optical fiber from the distributed back-reflection processing output.
A method of concentration of a liquid comprising a biomolecule which comprises passing the liquid through a tangential flow filtration device under pressure, wherein the pressure applied is cycled between at least a higher pressure and a lower pressure, and at least 10 cycles are employed.
A resin composition comprising: a polyether sulfone resin as a main component of its resin components; and one or two or more types of resins other than the polyether sulfone resin as accessory components thereof, wherein the accessory components include at least a phenoxy resin, and when the accessory components have a melt viscosity at 300°C of η 0 (Pa·s), and the polyether sulfone resin has a melt viscosity at 300°C of η 1 (Pa·s), the resin composition satisfies Relational expression below: η 0 ≥ η 1 − 100 wherein the accessory components further include a polyamide resin, and wherein in the resin composition, the ratio of the polyether sulfone resin contained therein is 40 to 90 mass% with respect to all resin components, the total amount of the polyamide resin and the phenoxy resin is 30 to 80 parts by mass with respect to 100 parts by mass of the polyether sulfone resin, and when the total amount of the polyamide resin and the phenoxy resin is taken as 100 mass%, the ratio of the phenoxy resin is 30 to 50 mass%. a polyether sulfone resin as a main component of its resin components; and one or two or more types of resins other than the polyether sulfone resin as accessory components thereof, wherein the accessory components include at least a phenoxy resin, and when the accessory components have a melt viscosity at 300°C of η 0 (Pa·s), and the polyether sulfone resin has a melt viscosity at 300°C of η 1 (Pa·s), the resin composition satisfies Relational expression below: η 0 ≥ η 1 − 100 wherein the accessory components further include a polyamide resin, and wherein in the resin composition, the ratio of the polyether sulfone resin contained therein is 40 to 90 mass% with respect to all resin components, the total amount of the polyamide resin and the phenoxy resin is 30 to 80 parts by mass with respect to 100 parts by mass of the polyether sulfone resin, and when the total amount of the polyamide resin and the phenoxy resin is taken as 100 mass%, the ratio of the phenoxy resin is 30 to 50 mass%.
A shapeable or rigid structure for arrangement at a location or in an area and marking of the location or area in the human or animal body, having a physical manifestation to promote visual recognizability or recognizability in imaging techniques, the manifestation having a tubular hollow body , characterized in that the hollow body has a plurality of cavities formed by constrictions or indentations, the structure or the hollow body being formed from a material dissolvable or degradable in the human or animal body.
A reconnaissance rover designed for multiple agile and autonomous landings on a small body or moon having weak gravitational forces in relation to an acceleration in the range of 10 -6 to 10 -4 m/s 2 , the reconnaissance rover comprising: a detection unit , which is designed to detect at least an environment in front of the reconnaissance rover , in the direction of a trajectory of the reconnaissance rover over a surface of the small body (A) or moon and to provide environmental data based on the detected environment; a processing unit , which is designed to update the trajectory based upon the provided environmental data and, based on an amount of a gravitational force vector of the small body (A) or moon, when updating the trajectory to take into account a maximum velocity of the reconnaissance rover relative to the small body (A) or moon, which the reconnaissance rover must not exceed; a control unit and a drive unit , which are designed to interact in order to move the reconnaissance rover according to the updated trajectory, wherein the drive unit is designed to apply forces which are in a range between 1 N and 10 -6 N, in order to hold the reconnaissance rover in a hovering state above the surface for a period from 1 minute to 1 hour. a detection unit , which is designed to detect at least an environment in front of the reconnaissance rover , in the direction of a trajectory of the reconnaissance rover over a surface of the small body (A) or moon and to provide environmental data based on the detected environment; a processing unit , which is designed to update the trajectory based upon the provided environmental data and, based on an amount of a gravitational force vector of the small body (A) or moon, when updating the trajectory to take into account a maximum velocity of the reconnaissance rover relative to the small body (A) or moon, which the reconnaissance rover must not exceed; a control unit and a drive unit , which are designed to interact in order to move the reconnaissance rover according to the updated trajectory, wherein the drive unit is designed to apply forces which are in a range between 1 N and 10 -6 N, in order to hold the reconnaissance rover in a hovering state above the surface for a period from 1 minute to 1 hour.
A locking mechanism comprising a housing in the form of a first nut which is configured to receive a shank, a spring-loaded member comprising a body and a locking pin , wherein the locking pin is configured to engage an aperture defined by a surface of a second nut , the body and locking pin being biased to an engaged position by a spring and wherein the body defines a threaded surface for engaging the thread of a threaded key , the key being configured to retract the locking pin through translation of torque and rotational motion on the key by a user into a linear force on the spring loaded member , thereby causing said locking pin to disengage from the aperture defined by the surface and to remain in a disengaged position while the key is engaged with the threaded surface of the body , characterised in that the first nut includes a cuff for receiving the second nut and thereby limiting unauthorised access to the second nut .