mhurhangee/patent-ind-claim-en huggingface dataset:
A display system for a vehicle, the system comprising: one or more displays ; at least one sensor configured to determine a user's line of sight; an input means to receive a command from the user, wherein the input means comprises a movement sensor to receive a gesture command from the user; and a controller configured to determine an active zone and a non-active zone of the one or more displays based on the user's line of sight and the gesture command from the user, characterised in that the one or more displays are configured to operate the active zone at an enhanced level as compared to the non-active zone; and the controller is configured to rank content displayed on one or more displays for a vehicle according to an attention score determined by at least one sensor configured to measure gaze of a user based on the user' s line of sight and receive a gesture command from the user; and the controller is operable to execute modification of an operating parameter of the one or more displays selected from the group consisting of: illumination; movement of any object on the display; magnification; and combinations thereof. one or more displays ; at least one sensor configured to determine a user's line of sight; an input means to receive a command from the user, wherein the input means comprises a movement sensor to receive a gesture command from the user; and a controller configured to determine an active zone and a non-active zone of the one or more displays based on the user's line of sight and the gesture command from the user, characterised in that the one or more displays are configured to operate the active zone at an enhanced level as compared to the non-active zone; and the controller is configured to rank content displayed on one or more displays for a vehicle according to an attention score determined by at least one sensor configured to measure gaze of a user based on the user' s line of sight and receive a gesture command from the user; and the one or more displays are configured to operate the active zone at an enhanced level as compared to the non-active zone; and the controller is configured to rank content displayed on one or more displays for a vehicle according to an attention score determined by at least one sensor configured to measure gaze of a user based on the user' s line of sight and receive a gesture command from the user; and the controller is operable to execute modification of an operating parameter of the one or more displays selected from the group consisting of: illumination; movement of any object on the display; magnification; and combinations thereof.
Jar for a blender , the jar comprising a tool holder , a wall component and a cooler element which are detachably combinable such that, in a combined state, they define a food reception space (R) designated to receive food to be processed by the blender , wherein the cooler element at least partially delimits the food reception space (R) characterised in that the cooler element comprises at least one double walled region encasing a phase-change material and in that said cooler element detachably fixable to the tool holder so as to build a bottom part of the jar, and the wall component is detachably fixable to the bottom part .
A multilayer assembly comprising at least the following layers: i. a metal surface (S) wherein the metal is selected from the group consisting of aluminium, an aluminium alloy, iron and iron alloys, cast iron, steel, magnesium alloys, titanium or titanium alloys, copper and copper alloys; ii. a coating, adhering directly on surface (S), of a composite material (C) comprising a cross-linked polymer (XPO) and a filler in the form of fibres (F), wherein (XPO) is the cross-linked form of a cross-linkable polymer (SPO) comprising recurring units deriving from at least one olefin and recurring units deriving from at least one monomer bearing silane groups and is chemically linked to filler (F) via the silane groups, wherein the filler (F) is selected from the group consisting of long and short fibres of glass, montmorillonite, zeolite, quartz, wollastonite, and mixtures thereof, and wherein the weight ratio of the filler (F) to the total weight of the composite material (C) is from 5 to 50%. i. a metal surface (S) wherein the metal is selected from the group consisting of aluminium, an aluminium alloy, iron and iron alloys, cast iron, steel, magnesium alloys, titanium or titanium alloys, copper and copper alloys; ii. a coating, adhering directly on surface (S), of a composite material (C) comprising a cross-linked polymer (XPO) and a filler in the form of fibres (F), wherein (XPO) is the cross-linked form of a cross-linkable polymer (SPO) comprising recurring units deriving from at least one olefin and recurring units deriving from at least one monomer bearing silane groups and is chemically linked to filler (F) via the silane groups, wherein the filler (F) is selected from the group consisting of long and short fibres of glass, montmorillonite, zeolite, quartz, wollastonite, and mixtures thereof, and wherein the weight ratio of the filler (F) to the total weight of the composite material (C) is from 5 to 50%.
A syringe , comprising: a body for receiving a medicament; a flange assembly fixedly disposed in said body , said flange assembly including a flange , a wall extending downwardly from said flange and a bore extending through said flange assembly , an inner surface of said wall comprising a threaded portion ; a plunger movably connected to said bore of said flange assembly ; and said plunger having a threaded portion corresponding to said threaded portion of said flange assembly to facilitate rotation of said plunger with respect to said body to set a dose and draw the medicament into said body , said threaded portion having a saw-tooth profile and being thin and somewhat flexible, said threaded portion deflecting to permit disengagement from the threaded portion when said plunger is pushed axially with respect to said body to allow axial movement of said plunger with respect to said body to dispense said medicament from said body . a body for receiving a medicament; a flange assembly fixedly disposed in said body , said flange assembly including a flange , a wall extending downwardly from said flange and a bore extending through said flange assembly , an inner surface of said wall comprising a threaded portion ; a plunger movably connected to said bore of said flange assembly ; and said plunger having a threaded portion corresponding to said threaded portion of said flange assembly to facilitate rotation of said plunger with respect to said body to set a dose and draw the medicament into said body , said threaded portion having a saw-tooth profile and being thin and somewhat flexible, said threaded portion deflecting to permit disengagement from the threaded portion when said plunger is pushed axially with respect to said body to allow axial movement of said plunger with respect to said body to dispense said medicament from said body .
A method for wireless communication comprising: receiving a downlink grant for scheduling data transmissions, wherein the downlink grant includes a transmission power control, TPC, command and a downlink assignment index, DAI, for an uplink subframe; determining a value for the TPC command as an acknowledgement / negative acknowledgement, ACK/NACK, resource indicator for an uplink control channel resource based on a value of the DAI, wherein the ACK/NACK resource indicator indicates an offset, relative to a higher layer configured control channel resource, which specifies the control channel resource for use as the uplink control channel resource and wherein the higher layer configured control channel resource is configured using radio resource control, RRC, signaling; and transmitting , during the uplink subframe, one or more ACK/NACK feedback elements using the uplink control channel resource. receiving a downlink grant for scheduling data transmissions, wherein the downlink grant includes a transmission power control, TPC, command and a downlink assignment index, DAI, for an uplink subframe; determining a value for the TPC command as an acknowledgement / negative acknowledgement, ACK/NACK, resource indicator for an uplink control channel resource based on a value of the DAI, wherein the ACK/NACK resource indicator indicates an offset, relative to a higher layer configured control channel resource, which specifies the control channel resource for use as the uplink control channel resource and wherein the higher layer configured control channel resource is configured using radio resource control, RRC, signaling; and transmitting , during the uplink subframe, one or more ACK/NACK feedback elements using the uplink control channel resource.
Device for position sensing comprising - sensing means arranged for producing at least two sensor signals (IN0, IN1, IN2), - a signal construction unit arranged for obtaining from said at least two sensor signals at least two time-synchronous signals and comprising - selection means for selecting in a serial way one of said at least two time-synchronous signals, - sampling means for sampling said selected time-synchronous signal at given sampling instants, - storage means for storing sampled data representing said selected time-synchronous signal and timing information indicating which of said given sampling instants were used to obtain said sampled data, - processing means for determining at one of said given sampling instants a value for at least one of said time-synchronous signals that was not sampled at said one given sampling instant by applying an interpolation scheme using data values of said at least one time synchronous signal stored in said storage means and obtained at another point in time than said one given sampling instant. - sensing means arranged for producing at least two sensor signals (IN0, IN1, IN2), - a signal construction unit arranged for obtaining from said at least two sensor signals at least two time-synchronous signals and comprising - selection means for selecting in a serial way one of said at least two time-synchronous signals, - sampling means for sampling said selected time-synchronous signal at given sampling instants, - storage means for storing sampled data representing said selected time-synchronous signal and timing information indicating which of said given sampling instants were used to obtain said sampled data, - processing means for determining at one of said given sampling instants a value for at least one of said time-synchronous signals that was not sampled at said one given sampling instant by applying an interpolation scheme using data values of said at least one time synchronous signal stored in said storage means and obtained at another point in time than said one given sampling instant. - selection means for selecting in a serial way one of said at least two time-synchronous signals, - sampling means for sampling said selected time-synchronous signal at given sampling instants, - storage means for storing sampled data representing said selected time-synchronous signal and timing information indicating which of said given sampling instants were used to obtain said sampled data, - processing means for determining at one of said given sampling instants a value for at least one of said time-synchronous signals that was not sampled at said one given sampling instant by applying an interpolation scheme using data values of said at least one time synchronous signal stored in said storage means and obtained at another point in time than said one given sampling instant.
A medical rubber stopper , comprising: a disk-shaped head portion with a flange region ; and a cylindrical leg portion protruding from a lower surface of the head portion and having a smaller diameter than the head portion , a lower surface of the flange region and the leg portion being laminated with an inert film , characterized by an outer periphery of the leg portion being provided with an annular groove through which the base rubber is exposed. a disk-shaped head portion with a flange region ; and a cylindrical leg portion protruding from a lower surface of the head portion and having a smaller diameter than the head portion , a lower surface of the flange region and the leg portion being laminated with an inert film , characterized by an outer periphery of the leg portion being provided with an annular groove through which the base rubber is exposed.
A method of determining a relative decrease in catalytic efficacy of a catalyst in a test sample of a catalyst solution in which the catalyst in the catalyst solution has an unknown catalytic activity, wherein the method is carried out on the catalyst solution prior to its use in polymer production, the method comprising: (a) mixing the test sample with a test solvent to form a test mixture, wherein the test solvent has predetermined amounts of both an alpha-olefin and an activator, and wherein the alpha-olefin exothermically polymerizes in the presence of the activator and the catalyst to increase a temperature of the test sample; (b) measuring the increase in the temperature of the test mixture at predetermined time intervals immediately after forming the test mixture; (c) determining a test value of a predetermined feature in the increase in temperature measured in (b); (d) determining a control value of the predetermined feature in a known increase in temperature of a control mixture of the test solvent with a control sample of a control catalyst solution measured over the predetermined time intervals immediately after forming the control mixture, wherein the catalyst in the control sample has a known catalytic activity and wherein both the test sample and the control sample have the same predefined volume and predetermined weight percent of the catalyst; and (e) determining the relative decrease in catalytic efficacy of the catalyst in the test sample having the unknown catalytic activity from the equation: Relative Decrease in Catalytic Efficacy = Control Value − Test Value Control Value ; wherein the predetermined feature is either: a maximum temperature value reached during the increase in temperature over the predetermined time intervals; or a rate of temperature increase over a set time interval during the predetermined time intervals. (a) mixing the test sample with a test solvent to form a test mixture, wherein the test solvent has predetermined amounts of both an alpha-olefin and an activator, and wherein the alpha-olefin exothermically polymerizes in the presence of the activator and the catalyst to increase a temperature of the test sample; (b) measuring the increase in the temperature of the test mixture at predetermined time intervals immediately after forming the test mixture; (c) determining a test value of a predetermined feature in the increase in temperature measured in (b); (d) determining a control value of the predetermined feature in a known increase in temperature of a control mixture of the test solvent with a control sample of a control catalyst solution measured over the predetermined time intervals immediately after forming the control mixture, wherein the catalyst in the control sample has a known catalytic activity and wherein both the test sample and the control sample have the same predefined volume and predetermined weight percent of the catalyst; and (e) determining the relative decrease in catalytic efficacy of the catalyst in the test sample having the unknown catalytic activity from the equation: Relative Decrease in Catalytic Efficacy = Control Value − Test Value Control Value ;
A dermal adhesive in the form of a porous membrane formed through irradiation of a radiation-curable resin with radiation rays, having a porosity of 5 to 90%, wherein fibrous resins and particulate resins containing the radiation-curable resin are aggregated to define voids between the fibrous resins and/or the particulate resins, to be prepared in the form of the porous membrane, wherein the fiber diameter of each of the fibrous resins is from 1 to 1000 μm, the length of each of the fibrous resins is from 0.1 to 10 mm, and the particle size of each of the particulate resins is from 1 to 1000 μm.
Method for distributing an electrically insulating liquefied gaseous mixture to a high-voltage electrical apparatus from a storage means containing an insulating gaseous mixture, said method comprising the following steps: - Step a): heating said insulating gaseous mixture up to a temperature greater than or equal to the critical temperature thereof in order to obtain a homogenous supercritical fluid inside said storage means; - Step b): sampling the insulating mixture at the end of step a) to fill a high-voltage electrical apparatus by increasing the temperature of said mixture at the end of step a); characterised in that , during step b), a control setpoint with a variable pressure is applied, calculated in real time from the weight of the storage means, when the variation of the pressure setpoint is less than 0.2 bars per 1kg/m 3 of variation of the density, then a control setpoint with a constant temperature is applied, until the storage means is emptied of the content thereof. - Step a): heating said insulating gaseous mixture up to a temperature greater than or equal to the critical temperature thereof in order to obtain a homogenous supercritical fluid inside said storage means; - Step b): sampling the insulating mixture at the end of step a) to fill a high-voltage electrical apparatus by increasing the temperature of said mixture at the end of step a);
A method for obtaining a whey permeate feed, characterised in that it comprises the following phases: a) the process starts with the homogeneous milling of the grain or grains used to obtain this feed, with a particle size that preferably does not exceed 1.5 mm; b) the grain flour is introduced into a first endless worm, a conditioner, onto which saturated steam is injected in order to form a prepared pre-mixture at a temperature that ranges between 60 °C and 85 °C; c) the prepared pre-mixture is introduced into a second endless worm homogeniser, onto which a first percentage of the liquid whey permeate, which ranges between 20% and 40%, at a temperature between 57 °C and 62 °C, is added, this being the phase in which the flour is mixed with the liquid whey permeate at the temperature indicated; d) the mixture of grain flour, steam and a part of the whey permeate is introduced into the extruder, through which it travels at high speed, and where the remaining amount of the whey permeate used in the process is added in this part of the process, also at a temperature between 57°C and 62°C, at the same time that heat is applied to the mixture until it reaches a temperature between 95-150°C and internal pressures of 25-40 bars. e) the resulting product, which passes through holes drilled in a metal matrix of the extruder, are cut by a series of blades that give the final product its sliced or biscuit shape. a) the process starts with the homogeneous milling of the grain or grains used to obtain this feed, with a particle size that preferably does not exceed 1.5 mm; b) the grain flour is introduced into a first endless worm, a conditioner, onto which saturated steam is injected in order to form a prepared pre-mixture at a temperature that ranges between 60 °C and 85 °C; c) the prepared pre-mixture is introduced into a second endless worm homogeniser, onto which a first percentage of the liquid whey permeate, which ranges between 20% and 40%, at a temperature between 57 °C and 62 °C, is added, this being the phase in which the flour is mixed with the liquid whey permeate at the temperature indicated; d) the mixture of grain flour, steam and a part of the whey permeate is introduced into the extruder, through which it travels at high speed, and where the remaining amount of the whey permeate used in the process is added in this part of the process, also at a temperature between 57°C and 62°C, at the same time that heat is applied to the mixture until it reaches a temperature between 95-150°C and internal pressures of 25-40 bars. e) the resulting product, which passes through holes drilled in a metal matrix of the extruder, are cut by a series of blades that give the final product its sliced or biscuit shape.
A control system comprising: a control module ; an input/output module coupled with the control module , the input/output module including a plurality of communication channels , each channel of the plurality of communication channels configured to connect to one or more field devices , the input/output module further including switch fabric configured to selectively facilitate connectivity between the control module and the one or more field devices via the plurality of communication channels , wherein the input/output module further includes a controller coupled to the switch fabric , the controller configured to accommodate multiple communication standards running concurrently on respective channels of the plurality of communication channels ; a serial communications interface configured for connecting the input/output module to the control module , the serial communications interface connecting the input/output module in parallel with a second input/output module , the serial communications interface configured for transmitting information between the input/output module and the control module ; and a parallel communications interface configured for separately connecting the input/output module to the control module , the parallel communications interface configured for transmitting information between the input/output module and the control module , and transmitting information between the input/output module and the second input/output module . a control module ; an input/output module coupled with the control module , the input/output module including a plurality of communication channels , each channel of the plurality of communication channels configured to connect to one or more field devices , the input/output module further including switch fabric configured to selectively facilitate connectivity between the control module and the one or more field devices via the plurality of communication channels , wherein the input/output module further includes a controller coupled to the switch fabric , the controller configured to accommodate multiple communication standards running concurrently on respective channels of the plurality of communication channels ; a serial communications interface configured for connecting the input/output module to the control module , the serial communications interface connecting the input/output module in parallel with a second input/output module , the serial communications interface configured for transmitting information between the input/output module and the control module ; and a parallel communications interface configured for separately connecting the input/output module to the control module , the parallel communications interface configured for transmitting information between the input/output module and the control module , and transmitting information between the input/output module and the second input/output module .