mhurhangee/patent-ind-claim-en huggingface dataset:
A method for receiving a sounding reference signal, SRS, comprising: receiving , by a base station, an SRS transmitted by a user equipment, UE, the SRS being used for downlink channel estimation and supporting three-dimensional multiple input multiple output or Massive multiple input multiple output; wherein a subcarrier frequency interval of the SRS in a frequency domain is 2 or 4; and the SRS is configured in part of the resource blocks. receiving , by a base station, an SRS transmitted by a user equipment, UE, the SRS being used for downlink channel estimation and supporting three-dimensional multiple input multiple output or Massive multiple input multiple output; wherein a subcarrier frequency interval of the SRS in a frequency domain is 2 or 4; and the SRS is configured in part of the resource blocks.
A fuel element for a nuclear reactor , the fuel element comprising: at least one fissile material selected from the group consisting of U-233, U-235, PU-239, and PU-241 and containing at least two different neutron absorber elements selected from the group consisting of Gd, Dy, Hf, Er, and Eu; wherein the at least one fissile material and the at least two neutron absorbers are homogeneously mixed in the fuel element for providing a generally even distribution of the at least one fissile material and the at least two neutron absorbers throughout the fuel element; wherein the at least two different neutron absorber elements comprise 10 wt% - 40 wt% of the fuel element's fuel meat at fresh fuel conditions, wherein the fuel element is configured for a light water reactor. at least one fissile material selected from the group consisting of U-233, U-235, PU-239, and PU-241 and containing at least two different neutron absorber elements selected from the group consisting of Gd, Dy, Hf, Er, and Eu; wherein the at least one fissile material and the at least two neutron absorbers are homogeneously mixed in the fuel element for providing a generally even distribution of the at least one fissile material and the at least two neutron absorbers throughout the fuel element; wherein the at least two different neutron absorber elements comprise 10 wt% - 40 wt% of the fuel element's fuel meat at fresh fuel conditions, wherein the fuel element is configured for a light water reactor.
An image processing apparatus comprising: display means ; a web browser for displaying an operation screen to accept a setting for a job from a user on the display means ; job control means for executing a job on the image processing apparatus ; storage means for storing capability information indicating a job processing capability of said image processing apparatus ; a HTTP server for receiving an HTTP request from the web browser and sending to the web browser an HTTP response including a script for rewriting an operation screen in accordance with the job processing capability, the script for rewriting the operation screen being generated by the storage means and being received by the HTTP server from the storage means ; wherein the web browser receives (S704) from an external server an HTTP response including HTML data of the operation screen in response to a user input instruction, receives (S712) from the HTTP server the script for rewriting the operation screen received in the HTTP response in response to an HTTP request for the job processing capability of said image processing apparatus, processes (S713, S714) the script for rewriting the operation screen received in the HTTP response in accordance with the job processing capability to change whether or not to allow input or selection of an input element on the operation screen received in the HTTP response, and displays the rewritten operation screen obtained as a result of said script processing. display means ; a web browser for displaying an operation screen to accept a setting for a job from a user on the display means ; job control means for executing a job on the image processing apparatus ; storage means for storing capability information indicating a job processing capability of said image processing apparatus ; a HTTP server for receiving an HTTP request from the web browser and sending to the web browser an HTTP response including a script for rewriting an operation screen in accordance with the job processing capability, the script for rewriting the operation screen being generated by the storage means and being received by the HTTP server from the storage means ; wherein the web browser receives (S704) from an external server an HTTP response including HTML data of the operation screen in response to a user input instruction, receives (S712) from the HTTP server the script for rewriting the operation screen received in the HTTP response in response to an HTTP request for the job processing capability of said image processing apparatus, processes (S713, S714) the script for rewriting the operation screen received in the HTTP response in accordance with the job processing capability to change whether or not to allow input or selection of an input element on the operation screen received in the HTTP response, and displays the rewritten operation screen obtained as a result of said script processing.
Shell for a seat , comprising: - a frame , consisting of a plurality of sub-frames (11a-11d) obtained with at least a metal round piece , said sub-frames (11a-11d) being configured to each define at least one functional zone of said shell ; - a plurality of nets attached to at least some of said sub-frames (11a-11d), characterized in that each of said nets is shaped in a manner mating with the shape of the specific sub-frame (11a-11d) to which it is associated, wherein in one or more sub-frames (11a-11d), and on at least one net , at least a padding made of expanded material is positioned, with defined density and rigidity, and in that a covering of enhancing material covers at least said padding and said frame , and holds said padding in position with respect to said net . - a frame , consisting of a plurality of sub-frames (11a-11d) obtained with at least a metal round piece , said sub-frames (11a-11d) being configured to each define at least one functional zone of said shell ; - a plurality of nets attached to at least some of said sub-frames (11a-11d), characterized in that each of said nets is shaped in a manner mating with the shape of the specific sub-frame (11a-11d) to which it is associated, wherein in one or more sub-frames (11a-11d), and on at least one net , at least a padding made of expanded material is positioned, with defined density and rigidity, and in that a covering of enhancing material covers at least said padding and said frame , and holds said padding in position with respect to said net .
Use of a separated polypeptide having transaminase activity for an amino compound for transaminating an amino compound, wherein the polypeptide has the amino acid sequence of SEQ ID NO: 7 or an amino acid sequence having at least 75% homology with SEQ ID NO: 7, wherein the amino compound is selected from the group consisting of gamma-aminobutyric acid, 5-aminovaleric acid, and 6-aminocaproic acid.
A hair treatment composition comprising an aqueous continuous phase comprising at least 1% by weight of N-formyl amino acid wherein the N-formyl amino acid is N-formyl proline, N-formyl valine, N-formyl leucine or N-formyl glycine.
Façade panel screw - comprising a head with diameter D K , - and a substantially cylindrical cross-sectional, longitudinally expanded shank having a nominal diameter D S , - wherein the surface of the shank is at least partially provided with an at least two-start thread ; - and a cone-shaped tip having a tip angle γ, wherein the thread extends continuously from the shank to the tip , - and has no drill point, wherein - the tip angle γ is 45° +/-5°, - the head diameter D K is designed at least twice as large as the nominal diameter D S ; and the façade panel screw further comprises - a threadless underhead portion on the shank , and - a stop collar arranged on the shank between the thread and the threadless underhead portion . - comprising a head with diameter D K , - and a substantially cylindrical cross-sectional, longitudinally expanded shank having a nominal diameter D S , - wherein the surface of the shank is at least partially provided with an at least two-start thread ; - and a cone-shaped tip having a tip angle γ, wherein the thread extends continuously from the shank to the tip , - and has no drill point, wherein - the tip angle γ is 45° +/-5°, - the head diameter D K is designed at least twice as large as the nominal diameter D S ; and the façade panel screw further comprises - a threadless underhead portion on the shank , and - a stop collar arranged on the shank between the thread and the threadless underhead portion .
A method for attaching a metal mesh sunshield screen to a building , comprising the steps of: connecting the screen to the building by at least one traction element connected to at least one edge of the screen, tensioning the screen by exerting a traction on the traction element, the traction on the traction element being provided by an elastically deformable compression spring which is compression loaded, along a traction axis on the traction element, by a screen tensioning element , wherein the method comprises a step of evaluating the intensity of the traction exerted on the traction element by means of an evaluation device comprising an opaque mask and a movable visual indicator which is integral with or linked to the spring and is movable relative to the opaque mask as a function of the compression of the spring . connecting the screen to the building by at least one traction element connected to at least one edge of the screen, tensioning the screen by exerting a traction on the traction element, the traction on the traction element being provided by an elastically deformable compression spring which is compression loaded, along a traction axis on the traction element, by a screen tensioning element , wherein the method comprises a step of evaluating the intensity of the traction exerted on the traction element by means of an evaluation device comprising an opaque mask and a movable visual indicator which is integral with or linked to the spring and is movable relative to the opaque mask as a function of the compression of the spring .
Device for metering bulk material, in particular plastic granules, for machines processing plastic granules, in particular for injection molding machines, wherein a bulk material feed , a material hopper arranged under the bulk material feed and consisting of several, preferably four, individual removable material hopper containers that ends in a metering base device and, where appropriate, in the metering base device a weighing container with a scale is provided, the individual material hopper containers being arranged on a support cross and the support cross formed from support cross plates arranged at right angles to one another and vertically and mounted on the housing of the metering base device , characterized in that the support cross has a height (h) that corresponds at least to the height (h 1 ) of the material hopper extending above the metering base device and to the immersion depth (h 2 ) of the material hopper into the metering base device , and in that on the support cross on the end facing away from the metering base device a material hopper cover is provided, whereby the metal hopper cover extends over the material hopper or over individual material hopper containers .
Information filtering method for filtering information elements based on a finite set of filtering elements , the method comprising: selecting (S1) a subset of filtering elements from the finite set of filtering elements , assigning (S2) each one of the information elements to at least one of the filtering elements of the subset , and providing (S3) one marker per filtering element of the subset for every information element , wherein the markers provide information about whether the respective information element pertains to the respective filtering element of the subset, sorting (S4) the filtering elements of the subset according to a predefined sorting criteria, wherein the markers are provided in the same order as the ordered filtering elements of the subset , wherein the predefined sorting criteria defines a sorting according to the number of information elements pertaining to each filtering element , and wherein markers representing one of the filtering elements with no information elements pertaining to them are removed; and wherein the markers are provided as single bits in a digital memory, and wherein a positive bit value of a marker represents the respective information element pertaining to the respective filtering element . selecting (S1) a subset of filtering elements from the finite set of filtering elements , assigning (S2) each one of the information elements to at least one of the filtering elements of the subset , and providing (S3) one marker per filtering element of the subset for every information element , wherein the markers provide information about whether the respective information element pertains to the respective filtering element of the subset, sorting (S4) the filtering elements of the subset according to a predefined sorting criteria, wherein the markers are provided in the same order as the ordered filtering elements of the subset , wherein the predefined sorting criteria defines a sorting according to the number of information elements pertaining to each filtering element , and wherein markers representing one of the filtering elements with no information elements pertaining to them are removed; and wherein the markers are provided as single bits in a digital memory, and wherein a positive bit value of a marker represents the respective information element pertaining to the respective filtering element .
A resealable cap for a container , comprising: a cap cover having an opening ; and a resealable closure mechanism including an actuator tab , a rocker arm post , and a rocker arm , wherein the rocker arm post has a first end connected to the actuator tab and a second end connected to a first end of the rocker arm , and a second end of the rocker arm is configured to mate with the opening in the cap cover when the actuator tab is in an un-actuated position, wherein the resealable closure mechanism is configured such that, when the actuator tab is switched from the un-actuated position to an actuated position, the rocker arm pivots such that the first end of the rocker arm pivots upward, while the second end of the rocker arm pivots downward, characterized in that the rocker arm post includes a detent , and the detent is configured to mate with a detent groove positioned in the cap cover when the actuator tab is in the un-actuated position. a cap cover having an opening ; and a resealable closure mechanism including an actuator tab , a rocker arm post , and a rocker arm , wherein the rocker arm post has a first end connected to the actuator tab and a second end connected to a first end of the rocker arm , and a second end of the rocker arm is configured to mate with the opening in the cap cover when the actuator tab is in an un-actuated position, wherein an actuator tab , a rocker arm post , and a rocker arm , wherein the rocker arm post has a first end connected to the actuator tab and a second end connected to a first end of the rocker arm , and a second end of the rocker arm is configured to mate with the opening in the cap cover when the actuator tab is in an un-actuated position, wherein the resealable closure mechanism is configured such that, when the actuator tab is switched from the un-actuated position to an actuated position, the rocker arm pivots such that the first end of the rocker arm pivots upward, while the second end of the rocker arm pivots downward, characterized in that the rocker arm post includes a detent , and the detent is configured to mate with a detent groove positioned in the cap cover when the actuator tab is in the un-actuated position.
A method for preparing a fermented beverage comprising: a. obtaining an enzymatically hydrolyzed vegetable protein, wherein the vegetable protein is from vegetable sources selected from dent corn, waxy corn, high amylose corn, rice, waxy rice, pea, chick pea, yellow pea, navy beans, fava beans, lentils and/or wheat; b. after step a, combining the enzymatically hydrolyzed vegetable protein with a fermentable medium; c. fermenting the fermentable medium to form a fermented beverage; wherein the fermented beverage is beer; wherein the enzymatically hydrolyzed vegetable protein is obtained by slurrying the vegetable protein source in a major amount by weight of water, so that the vegetable protein source is present at from 2% to 50% by weight, adjusting the pH to from 5.0 to 6.5 with organic or inorganic acids or with bases, adding one or more amylases to the vegetable protein source slurry, heating the vegetable protein source slurry in a reactor under controlled conditions to a temperature between about 50°C to 90°C with sufficient agitation to homogenize the vegetable protein source and held at a final temperature between 80°C and 100°C for 1 h with continued agitation, adjusting the pH to 6.5 to 8.0, adding an enzyme preparation comprised of one or more proteolytic enzymes to the pH-controlled, homogenized slurry at a dosage level of 0.25 to 4.0%, holding the resulting enzyme-dosed mixture is then held under conditions conducive to hydrolysis for 2 to 50 hours, deactivating the enzyme and drying the product to a moisture content of from 1 to 8 wt.-% moisture. a. obtaining an enzymatically hydrolyzed vegetable protein, wherein the vegetable protein is from vegetable sources selected from dent corn, waxy corn, high amylose corn, rice, waxy rice, pea, chick pea, yellow pea, navy beans, fava beans, lentils and/or wheat; b. after step a, combining the enzymatically hydrolyzed vegetable protein with a fermentable medium; c. fermenting the fermentable medium to form a fermented beverage; wherein the fermented beverage is beer; wherein
An impregnated drag bit for forming a wellbore in an earth formation, comprising: a bit body having a proximal end, a distal end , and a longitudinal axis ; and a bit face located at the distal end and extending between the longitudinal axis and a gage , the bit face comprising at least one blade extending radially outward from the longitudinal axis toward the gage and comprising an outer surface to engage formation material, wherein the bit face is conical in shape having an apex of the conical shape located coincident with the longitudinal axis ; and wherein the outer surface of the at least one blade extends linearly from the apex at an acute angle (β) relative to a line perpendicular to the longitudinal axis of the bit body, wherein the at least one blade extends axially along the gage , characterised in that a second outer surface of the blade, along the gage, extends linearly and radially inward toward the longitudinal axis from an axially trailing edge to an axially leading edge of the gage. a bit body having a proximal end, a distal end , and a longitudinal axis ; and a bit face located at the distal end and extending between the longitudinal axis and a gage , the bit face comprising at least one blade extending radially outward from the longitudinal axis toward the gage and comprising an outer surface to engage formation material, wherein the bit face is conical in shape having an apex of the conical shape located coincident with the longitudinal axis ; and wherein the outer surface of the at least one blade extends linearly from the apex at an acute angle (β) relative to a line perpendicular to the longitudinal axis of the bit body, wherein the at least one blade extends axially along the gage , characterised in that a second outer surface of the blade, along the gage, extends linearly and radially inward toward the longitudinal axis from an axially trailing edge to an axially leading edge of the gage.
A method for a more efficient use of a combustion engine in a vehicle during driving of said vehicle, said vehicle further comprising an automatic step geared transmission for automatic gear ratio adaptation of the gear ratio between the engine rotational speed and rotational speed of driving wheels of the vehicle, said method comprising the steps of: - sensing current engine rotational speed and engine rotational speed increase, - estimating necessary minimum upshift engine rotational speed which has to be reached for a coming gear upshift; - registering that the engine rotational speed stops increasing without reaching said minimum upshift engine rotational speed at a relatively high but inefficient engine rotational speed just below the said minimum upshift rotational speed or registering that said engine rotational speed stops increasing relatively close to a maximum engine rotational speed where engine efficiency is relatively low and that there is no other possible gear to upshift to; and where said method is further characterized in the step of: - automatically controlling engine output torque in order to decrease the engine rotational speed to a first predetermined engine speed, without initiating a gear upshift, where engine efficiency is relatively high. - sensing current engine rotational speed and engine rotational speed increase, - estimating necessary minimum upshift engine rotational speed which has to be reached for a coming gear upshift; - registering that the engine rotational speed stops increasing without reaching said minimum upshift engine rotational speed at a relatively high but inefficient engine rotational speed just below the said minimum upshift rotational speed or registering that said engine rotational speed stops increasing relatively close to a maximum engine rotational speed where engine efficiency is relatively low and that there is no other possible gear to upshift to; and where said method is further characterized in the step of: - automatically controlling engine output torque in order to decrease the engine rotational speed to a first predetermined engine speed, without initiating a gear upshift, where engine efficiency is relatively high. - automatically controlling engine output torque in order to decrease the engine rotational speed to a first predetermined engine speed, without initiating a gear upshift, where engine efficiency is relatively high.