mhurhangee/ep-ind-claims huggingface dataset:
A polyolefin composition comprising: A) from 19 wt% to 50 wt% of a propylene ethylene copolymer having an ethylene derived units content ranging from 1.5 wt% to 6.0 wt% B) from 50 wt% to 81 wt% of a propylene ethylene 1-butene terpolymer having an ethylene derived units content ranging from 1.5 wt% and 6.0 wt% and 1-butene derived units content of between 4.8 wt% and 12.4 wt%; the sum of the amount of component A) and B) being 100; the composition being characterized by the following features: - molecular weight distribution, expressed in terms of Mw/Mn, greater than 4.0; - the creep and recovery curve measured on the polymer fuse at 200°C measured according to the procedure reported in the characterizing section shows a maximum value between 600 and 1200 seconds lower than 53x10 -5 1/Pa. A) from 19 wt% to 50 wt% of a propylene ethylene copolymer having an ethylene derived units content ranging from 1.5 wt% to 6.0 wt% B) from 50 wt% to 81 wt% of a propylene ethylene 1-butene terpolymer having an ethylene derived units content ranging from 1.5 wt% and 6.0 wt% and 1-butene derived units content of between 4.8 wt% and 12.4 wt%; the sum of the amount of component A) and B) being 100; the composition being characterized by the following features: - molecular weight distribution, expressed in terms of Mw/Mn, greater than 4.0; - the creep and recovery curve measured on the polymer fuse at 200°C measured according to the procedure reported in the characterizing section shows a maximum value between 600 and 1200 seconds lower than 53x10 -5 1/Pa. - molecular weight distribution, expressed in terms of Mw/Mn, greater than 4.0; - the creep and recovery curve measured on the polymer fuse at 200°C measured according to the procedure reported in the characterizing section shows a maximum value between 600 and 1200 seconds lower than 53x10 -5 1/Pa.
A method of making an aqueous dispersion of BIT particles having a D99 particle size distribution, measured using laser light scattering, of 75 microns or smaller, wherein said dispersion comprises one or more thickener and solid particles of 1,2-benzisothiazolin-3-one, wherein said method comprises the steps of (a) forming an aqueous mixture comprising water and a dissolved salt of 1,2-benzisothiazolin-3-one, wherein the pH of said aqueous mixture is 8.5 or higher, and (b) subsequently forming said aqueous dispersion by mixing together, in any order, components, wherein said components comprise an acid and said aqueous mixture, wherein the pH of said dispersion is 1.5 to 7.5, provided that either: (i) aqueous mixture contains said one or more thickener, or (ii) step (b) comprises: making a mixture comprising said one or more thickener and said aqueous mixture, and making a mixture comprising said acid and said aqueous mixture, wherein the amount of said acid is sufficient to bring said mixture comprising said acid and said aqueous mixture to a pH of 1.5 to 7.5, wherein said step is performed prior to said step. one or more thickener and solid particles of 1,2-benzisothiazolin-3-one, wherein said method comprises the steps of (a) forming an aqueous mixture comprising water and a dissolved salt of 1,2-benzisothiazolin-3-one, wherein the pH of said aqueous mixture is 8.5 or higher, and (b) subsequently forming said aqueous dispersion by mixing together, in any order, components, wherein said components comprise an acid and said aqueous mixture, wherein the pH of said dispersion is 1.5 to 7.5, provided that either: (i) aqueous mixture contains said one or more thickener, or (ii) step (b) comprises: making a mixture comprising said one or more thickener and said aqueous mixture, and making a mixture comprising said acid and said aqueous mixture, wherein the amount of said acid is sufficient to bring said mixture comprising said acid and said aqueous mixture to a pH of 1.5 to 7.5, wherein said step is performed prior to said step. (a) forming an aqueous mixture comprising water and a dissolved salt of 1,2-benzisothiazolin-3-one, wherein the pH of said aqueous mixture is 8.5 or higher, and (b) subsequently forming said aqueous dispersion by mixing together, in any order, components, wherein said components comprise an acid and said aqueous mixture, wherein the pH of said dispersion is 1.5 to 7.5, (i) aqueous mixture contains said one or more thickener, or (ii) step (b) comprises: making a mixture comprising said one or more thickener and said aqueous mixture, and making a mixture comprising said acid and said aqueous mixture, wherein the amount of said acid is sufficient to bring said mixture comprising said acid and said aqueous mixture to a pH of 1.5 to 7.5, wherein said step is performed prior to said step. making a mixture comprising said one or more thickener and said aqueous mixture, and making a mixture comprising said acid and said aqueous mixture, wherein the amount of said acid is sufficient to bring said mixture comprising said acid and said aqueous mixture to a pH of 1.5 to 7.5, wherein said step is performed prior to said step.
A method performed in a user-carried communication device comprising an Electric Field, EF, sensor, a processing circuitry and a communication circuitry, for initiating situational based communication actions in the communication device, the method comprising at a specific situation of a user carrying the communication device, associated with a static electric field dependent on vicinity of another object: - detecting the electric field surrounding the communication device using the EF sensor; - recording an output from the EF sensor as a predetermined characteristic of the specific situation; the method further comprising, at another time: - detecting a change in the electric field surrounding the communication device using the EF sensor; - determining that the user is in said specific situation based on the detected change in the electric field and the recorded predetermined characteristic; - activating the communication circuitry depending on the determination. - detecting the electric field surrounding the communication device using the EF sensor; - recording an output from the EF sensor as a predetermined characteristic of the specific situation; - detecting a change in the electric field surrounding the communication device using the EF sensor; - determining that the user is in said specific situation based on the detected change in the electric field and the recorded predetermined characteristic; - activating the communication circuitry depending on the determination.
A Radio Resource Control, RRC, message-multi-version compatible method for storing radio resources, comprising: receiving a RRC message sent by a network side; converting a protocol version of the RRC message by using one or more conversion functions to make the converted protocol version of the RRC message be consistent with that of a preservation function, when the protocol version of the RRC message is inconsistent with that of the preservation function; storing radio resources in the RRC message by using the preservation function; wherein the preservation function is a preservation function of a highest protocol version of one or more protocol versions supported by a terminal; the one or more conversion functions are in one-to-one correspondence to the one or more protocol versions supported by the terminal; wherein converting the protocol version of the RRC message by using the one or more conversion functions comprises: converting the protocol version of the RRC message into a protocol version of a higher level by using a conversion function corresponding to the protocol version of a higher level than the protocol version of the RRC message. receiving a RRC message sent by a network side; converting a protocol version of the RRC message by using one or more conversion functions to make the converted protocol version of the RRC message be consistent with that of a preservation function, when the protocol version of the RRC message is inconsistent with that of the preservation function; storing radio resources in the RRC message by using the preservation function; wherein the preservation function is a preservation function of a highest protocol version of one or more protocol versions supported by a terminal; the one or more conversion functions are in one-to-one correspondence to the one or more protocol versions supported by the terminal; wherein converting the protocol version of the RRC message by using the one or more conversion functions comprises: converting the protocol version of the RRC message into a protocol version of a higher level by using a conversion function corresponding to the protocol version of a higher level than the protocol version of the RRC message.
Sheet, with a uniform thickness of between 0.20 mm and 6 mm, for a reinforcing or structural part of a car body, consisting of an aluminium alloy of the following composition, in weight per cent: Si: 10 - 14, Mg: 0.05 - 0.8, Cu: 0 - 0.2, Fe: 0 - 0.5, Mn: 0 - 0.5, optionally at least one element selected from Na, Ca, Sr, Ba, Yt and Li, the quantity of said element if selected being between 0.01 and 0.05 for Na, Ca, Sr, Ba and Yt and between 0.1 and 0.3 for Li, Sb: 0 - 0.05, Cr: 0 - 0.1, Ti: 0 - 0.2, other elements < 0.05 each and < 0.15 total, remainder aluminium, characterised in that the sheet is in T4 temper. Si: 10 - 14, Mg: 0.05 - 0.8, Cu: 0 - 0.2, Fe: 0 - 0.5, Mn: 0 - 0.5, optionally at least one element selected from Na, Ca, Sr, Ba, Yt and Li, the quantity of said element if selected being between 0.01 and 0.05 for Na, Ca, Sr, Ba and Yt and between 0.1 and 0.3 for Li, Sb: 0 - 0.05, Cr: 0 - 0.1, Ti: 0 - 0.2, other elements < 0.05 each and < 0.15 total, remainder aluminium, characterised in that the sheet is in T4 temper.
A system for adjusting a position of one or more exterior vehicle lights, comprising: an accelerometer providing data indicating changes in vehicle pitch; a vehicle-mounted camera providing additional data indicating changes in vehicle pitch; a vehicle light leveling actuator for controlling the position of the one or more exterior vehicle lights; and a control unit receiving the data from both the accelerometer and the vehicle-mounted camera, processing the data, and communicating a command to the vehicle light leveling actuator based on data from the accelerometer and the vehicle-mounted camera; characterized in that the system further comprises a speed sensor providing speed data to the control unit; and the control unit selects the data indicating changes in vehicle pitch provided by the accelerometer over the data indicating changes in vehicle pitch provided by the vehicle-mounted camera based on the speed data provided to the control unit. an accelerometer providing data indicating changes in vehicle pitch; a vehicle-mounted camera providing additional data indicating changes in vehicle pitch; a vehicle light leveling actuator for controlling the position of the one or more exterior vehicle lights; and a control unit receiving the data from both the accelerometer and the vehicle-mounted camera, processing the data, and communicating a command to the vehicle light leveling actuator based on data from the accelerometer and the vehicle-mounted camera; characterized in that the system further comprises a speed sensor providing speed data to the control unit; and the control unit selects the data indicating changes in vehicle pitch provided by the accelerometer over the data indicating changes in vehicle pitch provided by the vehicle-mounted camera based on the speed data provided to the control unit.
A system for effectively performing an image data transformation procedure, comprising: an electronic camera device configured to capture primary image data in an RGB format corresponding to a photographic target; and a transformation manager configured to convert said primary image data into secondary image data in a YCbCr format by utilizing luminance transformation parameters that have been optimized to minimize noise characteristics in said secondary image data, wherein said luminance transformation parameters have been optimized by evaluating an optimization metric, characterised in that said optimization metric is evaluated in a linear L*a*b* color space to minimize said noise characteristics in said secondary image data; and in that standard noise deviations above and below an average L* value have been calculated for each color patch from a representative patch set, said standard noise deviations having been utilized to calculate noise variance values for each of said color patches according to a formula: NV = SND 2 where SND is one of said standard noise deviations, and NV is a corresponding one of said noise variance values used to calculate said optimization metric. an electronic camera device configured to capture primary image data in an RGB format corresponding to a photographic target; and a transformation manager configured to convert said primary image data into secondary image data in a YCbCr format by utilizing luminance transformation parameters that have been optimized to minimize noise characteristics in said secondary image data, wherein said luminance transformation parameters have been optimized by evaluating an optimization metric, characterised in that said optimization metric is evaluated in a linear L*a*b* color space to minimize said noise characteristics in said secondary image data; and in that standard noise deviations above and below an average L* value have been calculated for each color patch from a representative patch set, said standard noise deviations having been utilized to calculate noise variance values for each of said color patches according to a formula: NV = SND 2 where SND is one of said standard noise deviations, and NV is a corresponding one of said noise variance values used to calculate said optimization metric.
A system for rotatably supporting a roll of absorbent material, comprising: a plug having a first end insertable at least part way into a core of a roll of absorbent material and a second end having a non-circular opening; and a key member having a distal end having a complementary male shape that fits into said non-circular opening, a proximal end of said key member being rotatably connectable to a housing containing the roll of absorbent material; characterised in that said plug further comprises an annular flange that prevents said plug from being pushed completely inside said core, said non-circular opening being coplanar with said annular flange. a plug having a first end insertable at least part way into a core of a roll of absorbent material and a second end having a non-circular opening; and a key member having a distal end having a complementary male shape that fits into said non-circular opening, a proximal end of said key member being rotatably connectable to a housing containing the roll of absorbent material; characterised in that said plug further comprises an annular flange that prevents said plug from being pushed completely inside said core, said non-circular opening being coplanar with said annular flange.
A sensor module (700, 800, 780) for sensing characteristics of a fluid flowing through a fluid conduit, comprising: a sensor probe (720, 820) comprising at least two arms (122, 124, 824) coupled together at a central location with each of the at least two arms (122, 124, 824) extending radially outwardly away from the central location, wherein each of the at least two arms (122, 124, 824) comprises one of a plurality of openings (126, 326, 426) and an elongate opening extending radially along the arm (122, 124, 824), the openings (126, 326, 426, 530) facing an upstream direction, the at least two arms (122, 124, 824) further defining fluid flow channels therein; at least one extractor (730, 830) coupled to the probe (720, 820), the at least one extractor (730, 830) comprising a fluid flow channel communicable in fluid receiving communication with fluid flowing through the fluid flow channel of at least one of the at least two arms (122, 124, 824); and at least one sensor (742, 842) communicable in fluid sensing communication with fluid flowing through the at least one extractor (730, 830); characterised in that: the extractor (730, 830) includes a fluid sampling line (734, 834, 782) that extends away from the probe (720, 820) in a downstream direction by a distance sufficient, in use, to bypass a fluid treatment device located downstream of the sensor probe (720, 820) and to place a fluid outlet line (732, 832, 784) of the extractor (730, 830) at a location downstream of the downstream fluid treatment device. a sensor probe (720, 820) comprising at least two arms (122, 124, 824) coupled together at a central location with each of the at least two arms (122, 124, 824) extending radially outwardly away from the central location, wherein each of the at least two arms (122, 124, 824) comprises one of a plurality of openings (126, 326, 426) and an elongate opening extending radially along the arm (122, 124, 824), the openings (126, 326, 426, 530) facing an upstream direction, the at least two arms (122, 124, 824) further defining fluid flow channels therein; at least one extractor (730, 830) coupled to the probe (720, 820), the at least one extractor (730, 830) comprising a fluid flow channel communicable in fluid receiving communication with fluid flowing through the fluid flow channel of at least one of the at least two arms (122, 124, 824); and at least one sensor (742, 842) communicable in fluid sensing communication with fluid flowing through the at least one extractor (730, 830); characterised in that: the extractor (730, 830) includes a fluid sampling line (734, 834, 782) that extends away from the probe (720, 820) in a downstream direction by a distance sufficient, in use, to bypass a fluid treatment device located downstream of the sensor probe (720, 820) and to place a fluid outlet line (732, 832, 784) of the extractor (730, 830) at a location downstream of the downstream fluid treatment device.
A broadcast receiving apparatus comprising: a signal receiver arranged to receive an analog broadcast signal corresponding to a channel selected by a user from among a plurality of channels in a radio frequency, RF, band; a sync signal detector arranged to detect a sync signal area of the received analog broadcast signal; an interference signal detector arranged to compare the detected sync signal area of the received analog broadcast signal with a predetermined reference signal to identify an interference signal component from the detected sync signal area, the interference signal component corresponding to a frequency of a channel adjacent to the selected channel among the plurality of channels; an interference signal remover arranged to remove the interference signal component from the received analog broadcast signal. a signal receiver arranged to receive an analog broadcast signal corresponding to a channel selected by a user from among a plurality of channels in a radio frequency, RF, band; a sync signal detector arranged to detect a sync signal area of the received analog broadcast signal; an interference signal detector arranged to compare the detected sync signal area of the received analog broadcast signal with a predetermined reference signal to identify an interference signal component from the detected sync signal area, the interference signal component corresponding to a frequency of a channel adjacent to the selected channel among the plurality of channels; an interference signal remover arranged to remove the interference signal component from the received analog broadcast signal.
A method for the diagnosis of prostate cancer comprising the steps of analysing in a sample from a patient the expression level of a splice variant of Ensembl gene ID ENSG00000255545.3 selected from the group comprising SEQ ID NO: 26, SEQ ID NO: 27, SEQ ID NO: 28, and SEQ ID NO: 29, wherein, if the expression level of said nucleic acid is above a threshold value, the sample is designated as prostate cancer positive.
An apparatus adapted to be mounted adjacent to an interior surface of a windshield of a vehicle, said apparatus comprising: a bracket adapted to be directly connected with the windshield of the vehicle, and a module connected with said bracket to position a rain sensor and a camera assembly disposed within said module relative to the windshield of the vehicle, said rain sensor being spaced from said camera assembly within said module, said module having a first major side which faces toward said bracket when said module is connected with said bracket, said first major side of said module including a recess through which said camera assembly is optically exposed to environment adjacent to said module said rain sensor having a coupler which extends from said first major side of said module and is pressed against an inner side of the windshield, said bracket having an opening which extends around an end portion of said recess in said first major side of said module and around said coupler of said rain sensor. a bracket adapted to be directly connected with the windshield of the vehicle, and a module connected with said bracket to position a rain sensor and a camera assembly disposed within said module relative to the windshield of the vehicle, said rain sensor being spaced from said camera assembly within said module, said module having a first major side which faces toward said bracket when said module is connected with said bracket, said first major side of said module including a recess through which said camera assembly is optically exposed to environment adjacent to said module said rain sensor having a coupler which extends from said first major side of said module and is pressed against an inner side of the windshield, said bracket having an opening which extends around an end portion of said recess in said first major side of said module and around said coupler of said rain sensor.