mhurhangee/ep-ind-claims huggingface dataset:
An adjustable lift rate method for a grass mowing machine, the machine comprising a lift and lower circuit, including a plurality of hydraulic lift cylinders (120, 122, 124) to lift and lower a plurality of cutting units; and a proportional solenoid valve; the method comprising: providing with a controller a current to the proportional solenoid valve to divert hydraulic fluid to bypass the hydraulic lift cylinders (120, 122, 124); characterized by adjusting with an operator control the current to the proportional solenoid valve to adjust a lift rate and a lower rate of the plurality of cutting units. a lift and lower circuit, including a plurality of hydraulic lift cylinders (120, 122, 124) to lift and lower a plurality of cutting units; and a proportional solenoid valve; the method comprising: providing with a controller a current to the proportional solenoid valve to divert hydraulic fluid to bypass the hydraulic lift cylinders (120, 122, 124); characterized by adjusting with an operator control the current to the proportional solenoid valve to adjust a lift rate and a lower rate of the plurality of cutting units. providing with a controller a current to the proportional solenoid valve to divert hydraulic fluid to bypass the hydraulic lift cylinders (120, 122, 124); characterized by adjusting with an operator control the current to the proportional solenoid valve to adjust a lift rate and a lower rate of the plurality of cutting units.
Device for fixing a front panel element for cooling a motor vehicle, such as a radiator, mounted on a first part such as a cross member and comprising an oblong housing receiving a pin projecting from a second part such as the radiator, the housing having a first position for receiving the pin corresponding to normal operating conditions of the device, the first position being defined between an end of the housing and two lugs (4, 40) provided projecting in the housing, said pin being movable in translation so as to be guided between the first position and at least a second position under the effect of a force of a magnitude exceeding a given threshold, characterised in that said lugs (4, 40) extend respectively from one edge of the housing, obliquely one towards the other and with their ends (4a, 40a) facing each other, in the direction of the end of the housing with which they form a first position for receiving the pin, said arms (4, 40) being separable from each other in order to extend substantially along the edges of the housing in order to allow the pin to pass to the second position when the given threshold of magnitude of the force exerted is exceeded, in that said device is in the form of a stud consisting of a first supporting part consisting of an element made from an elastically deformable material substantially in the form of a sleeve and having, on its external peripheral wall, means for fixing to a cross member, this first supporting part being for fixing said stud on a first element such as a cross member and a second reception part defining the housing receiving the pin, the so-called part for receiving the pin consisting of an insert made from plastics material that has a skirt defining an aperture constituting the housing and provided with a collar (11 b), said insert being able to fit in the sleeve, the collar (11 b) coming into abutment on a face of the sleeve, the lugs being formed so as to project from the edges of the skirt (11 a).
A device for measuring the angle of rotation or speed of rotation having - at least one transmitter (100, 101) of radio waves, - at least two receivers (104, 105, 106) for radio waves, - an anisotropic detector for the radio waves emitted by the transmitter, - wherein the anisotropic detector can be rotated in respect of the receivers (104, 105) about an axis of rotation, - wherein the receivers (104, 105, 106) are polarization-sensitive, - wherein the radio waves emitted by the transmitter (100, 101) are modified by the anisotropic detector and the modified radio waves are received by the polarization-sensitive receivers (104, 105, 106), - wherein mechanisms are provided which are configured to draw conclusions on the polarization of the radio waves received from the signals of the polarization-sensitive receivers (104, 105, 106). - at least one transmitter (100, 101) of radio waves, - at least two receivers (104, 105, 106) for radio waves, - an anisotropic detector for the radio waves emitted by the transmitter, - wherein the anisotropic detector can be rotated in respect of the receivers (104, 105) about an axis of rotation, - wherein the receivers (104, 105, 106) are polarization-sensitive, - wherein the radio waves emitted by the transmitter (100, 101) are modified by the anisotropic detector and the modified radio waves are received by the polarization-sensitive receivers (104, 105, 106), - wherein mechanisms are provided which are configured to draw conclusions on the polarization of the radio waves received from the signals of the polarization-sensitive receivers (104, 105, 106).
An information processing device connected to a server system via a network, the information processing device comprising: a receiving section configured to receive a request from a user to execute a first application in the server system, the first application being a cloud game to be played by the user; a transmitting section configured to transmit the request from a user to execute the first application to the server system; an obtaining section configured to obtain, from the server system, information on a wait for processing of the first application when there is no assignable processing unit (204a, 204b) in the server system; an application executing section configured to process a second application, in response to an input from the user, while waiting for a start of the processing of the first application in the server system; and a display section configured to display, superimposed upon the second application, the information on the wait for the processing of the first application, wherein processing of the second application is suspended when processing of the first application begins. a receiving section configured to receive a request from a user to execute a first application in the server system, the first application being a cloud game to be played by the user; a transmitting section configured to transmit the request from a user to execute the first application to the server system; an obtaining section configured to obtain, from the server system, information on a wait for processing of the first application when there is no assignable processing unit (204a, 204b) in the server system; an application executing section configured to process a second application, in response to an input from the user, while waiting for a start of the processing of the first application in the server system; and a display section configured to display, superimposed upon the second application, the information on the wait for the processing of the first application, wherein processing of the second application is suspended when processing of the first application begins.
A method, performed by a wireless device, for managing a positioning method based on prediction, wherein the method comprises: performing (408, 908) mobility measurements relating to mobility of the wireless device; estimating (409, 909) a position of the wireless device based on prediction by using the mobility measurements and a first recorded intra-cell pattern of cells visited by the wireless device, which first recorded intra-cell pattern indicates positions within a cell of a cellular network, wherein the wireless device is associated with the cell in which the wireless device is currently located; and when the estimated position has reached a checkpoint of the first recorded intra-cell pattern, wherein the checkpoint identifies a junction between the first recorded intra-cell pattern and a second recorded intra-cell pattern of cells visited by the wireless device for indicating positions within the cell, detecting (410,910) whether the wireless device is on the first recorded intra-cell pattern or on the second recorded intra-cell pattern; characterized in that the method further comprises: selecting (407, 907) the first recorded intra-cell pattern based on a source cell from which the wireless device entered the current cell, and a further source cell which was visited by the wireless device, prior to the source cell. performing (408, 908) mobility measurements relating to mobility of the wireless device; estimating (409, 909) a position of the wireless device based on prediction by using the mobility measurements and a first recorded intra-cell pattern of cells visited by the wireless device, which first recorded intra-cell pattern indicates positions within a cell of a cellular network, wherein the wireless device is associated with the cell in which the wireless device is currently located; and when the estimated position has reached a checkpoint of the first recorded intra-cell pattern, wherein the checkpoint identifies a junction between the first recorded intra-cell pattern and a second recorded intra-cell pattern of cells visited by the wireless device for indicating positions within the cell, detecting (410,910) whether the wireless device is on the first recorded intra-cell pattern or on the second recorded intra-cell pattern; characterized in that the method further comprises: selecting (407, 907) the first recorded intra-cell pattern based on a source cell from which the wireless device entered the current cell, and a further source cell which was visited by the wireless device, prior to the source cell. selecting (407, 907) the first recorded intra-cell pattern based on a source cell from which the wireless device entered the current cell, and a further source cell which was visited by the wireless device, prior to the source cell.
A respiratory mask arrangement comprising: a headgear device a sealing lip device (1; 21) for resting on a facial surface of a mask user, a covering device which is coupled to the headgear device and in cooperation with the sealing lip device defines a mask interior, a respiratory gas conduit for delivering respiratory gas to the mask interior defined by the covering device (2; 22) and communicating with the nostril and/or oral opening of the mask user, wherein the covering device at least in portions is embodied as an air-permeable structure (7; 24, 27), characterized in that the headgear device comprises a conduit device which communicates with the mask interior, and that the headgear device comprises at least one air-permeable material portion so that pressurized respiratory gas can flow out of the mask interior through the air-permeable material portion of the headgear. a headgear device a sealing lip device (1; 21) for resting on a facial surface of a mask user, a covering device which is coupled to the headgear device and in cooperation with the sealing lip device defines a mask interior, a respiratory gas conduit for delivering respiratory gas to the mask interior defined by the covering device (2; 22) and communicating with the nostril and/or oral opening of the mask user, wherein the covering device at least in portions is embodied as an air-permeable structure (7; 24, 27), characterized in that the headgear device comprises a conduit device which communicates with the mask interior, and that the headgear device comprises at least one air-permeable material portion so that pressurized respiratory gas can flow out of the mask interior through the air-permeable material portion of the headgear.
An apparatus for the energy-saving calibration and cooling of extruded profiled sections with a calibration tank which can be evacuated and in which several tank baffles are arranged, through which the profiled section to be calibrated is guided, and which are designed and arranged in such a way that a free flow of the cooling medium is provided along the profiled section from the inflow opening up to the outflow opening, wherein an overflow baffle is provided on the downstream side of the calibration tank, which baffle abuts the calibration tank at the bottom and on the side in a sealed manner and comprises an overflow edge at its upper side, wherein the overflow baffle separates the main section of the calibration tank on its upstream side from a draw-off chamber on the downstream side, and wherein an outflow opening is provided in the region of the draw-off chamber for the cooling medium below the overflow edge, characterised in that the tank baffles have a distance (5', 5") on both sides from the side walls of the calibration tank and a distance (5"') from a base of the calibration tank, so that the cooling medium flow (10', 10") flows around the tank baffles at the side and bottom.
A method of forming an inflated aerofoil, the method comprising the steps of: forming a layered, planar pre-form; providing at least one stress-relieving opening (44, 45, 46, 47) through the pre-form; hot creep forming and inflating the pre-form to form an intermediate aerofoil; and subsequently removing material from the intermediate aerofoil, including at least a region containing the or each stress-relieving opening (44, 45, 46, 47), to form a finished aerofoil. forming a layered, planar pre-form; providing at least one stress-relieving opening (44, 45, 46, 47) through the pre-form; hot creep forming and inflating the pre-form to form an intermediate aerofoil; and subsequently removing material from the intermediate aerofoil, including at least a region containing the or each stress-relieving opening (44, 45, 46, 47), to form a finished aerofoil.
A thrust bearing, comprising: an electromagnetic stator having a stator surface; and a rotor disk rotatable relative to said electromagnetic stator and having a rotor surface facing said stator surface; wherein said rotor disk comprises a radially inner portion made of a first material directly and exclusively connected to a radially outer portion made of a second material; the first material is a corrosion resistant metal or metal alloy; the second material is a ferromagnetic metal or metal alloy; characterised in that the radially outer portion has a protective layer, coating or cladding made of a corrosion resistant material; and the protective layer, coating or cladding extends from the radially outer portion beyond an interface between the radially outer portion and the radially inner portion. an electromagnetic stator having a stator surface; and a rotor disk rotatable relative to said electromagnetic stator and having a rotor surface facing said stator surface; wherein said rotor disk comprises a radially inner portion made of a first material directly and exclusively connected to a radially outer portion made of a second material; the first material is a corrosion resistant metal or metal alloy; the second material is a ferromagnetic metal or metal alloy; characterised in that the radially outer portion has a protective layer, coating or cladding made of a corrosion resistant material; and the protective layer, coating or cladding extends from the radially outer portion beyond an interface between the radially outer portion and the radially inner portion.
An apparatus for transmitting a data signal for an immersive service, the apparatus comprising: an encoder to generate (S3 5 100) timed media data having a first intrinsic timeline for representing time and timed metadata having a second intrinsic timeline for representing time; characterized by a formatter to format (S3 5100) the timed metadata and the timed media data into a media file, wherein the timed metadata includes position metadata that describes position metadata entities in each sample of the media file and orientation metadata that describes orientation metadata entities in each sample of the media file, wherein the position metadata entities includes entity count information representing a number of position metadata entities in each sample, an indication whether or not capability information on the sensor, which has measured position data included in a position metadata entity within a sample, is present in the position metadata entities, and position entity code information representing types of the position information in the position metadata entities, wherein the orientation metadata entities includes entity count information representing a number of orientation metadata entities in each sample of the media file, an indication whether or not capability information on the sensor, which has measured orientation data included in an orientation metadata entity within a sample, is present in the orientation metadata entities; and a transmitter to transmit the media file including the timed metadata and the timed media. an encoder to generate (S3 5 100) timed media data having a first intrinsic timeline for representing time and timed metadata having a second intrinsic timeline for representing time; characterized by a formatter to format (S3 5100) the timed metadata and the timed media data into a media file, wherein the timed metadata includes position metadata that describes position metadata entities in each sample of the media file and orientation metadata that describes orientation metadata entities in each sample of the media file, wherein the position metadata entities includes entity count information representing a number of position metadata entities in each sample, an indication whether or not capability information on the sensor, which has measured position data included in a position metadata entity within a sample, is present in the position metadata entities, and position entity code information representing types of the position information in the position metadata entities, wherein the orientation metadata entities includes entity count information representing a number of orientation metadata entities in each sample of the media file, an indication whether or not capability information on the sensor, which has measured orientation data included in an orientation metadata entity within a sample, is present in the orientation metadata entities; and a transmitter to transmit the media file including the timed metadata and the timed media.
Machining centre comprising: - at least one framework comprising a horizontal crosspiece; - supporting means associated to said framework, said supporting means comprising at least two workpiece holding tables, said horizontal crosspiece being arranged above said two workpiece holding tables; - at least one first operating unit that is movable on said framework in one or more working axes, said first operating unit being arranged to deposit hardening plasticized material on said supporting means to form at least one raw workpiece; - at least one second operating unit that is movable on said framework in one or more working axes, said second operating unit being arranged to remove material from said raw workpiece, said at least two workpiece holding tables being arranged one beside the other so they are both reachable by said first operating unit and/or by said second operating unit; - at least one barrier that is interposed between said two workpiece holding tables; characterized in that said first operating unit and said second operating unit are movable on said crosspiece along a first horizontal machining axis and said crosspiece is movable along a second machining axis that is horizontal and perpendicular to said first machining axis. - at least one framework comprising a horizontal crosspiece; - supporting means associated to said framework, said supporting means comprising at least two workpiece holding tables, said horizontal crosspiece being arranged above said two workpiece holding tables; - at least one first operating unit that is movable on said framework in one or more working axes, said first operating unit being arranged to deposit hardening plasticized material on said supporting means to form at least one raw workpiece; - at least one second operating unit that is movable on said framework in one or more working axes, said second operating unit being arranged to remove material from said raw workpiece, said at least two workpiece holding tables being arranged one beside the other so they are both reachable by said first operating unit and/or by said second operating unit; - at least one barrier that is interposed between said two workpiece holding tables;
A compound for use in regulating a HIF-1α prolyl hydroxylase, wherein the compound is of the formula: wherein Z is phenyl substituted from 1 to 5 halogens chosen from fluorine and chlorine; R 4 is C 1 -C 4 linear alkyl or C 3 -C 4 branched alkyl; or a pharmaceutically-acceptable salt thereof. wherein Z is phenyl substituted from 1 to 5 halogens chosen from fluorine and chlorine; R 4 is C 1 -C 4 linear alkyl or C 3 -C 4 branched alkyl;
A method of preparing a compound having a backbone structure according to formula, wherein G is OH or CO 2 H, or ethers, esters or anhydrides thereof from biomass-derived compounds, comprising reacting a biomass-derived compound having a backbone structure according to formula: with a compound with formula: wherein X is O and z is 0, or X is N and z is 1, wherein R 1 and R 2 are each independently an optionally substituted and/or heteroatom containing hydrocarbyl group or a link to a heterogeneous support, and R 2 can also be hydrogen, to give a compound with a backbone structure according to formula: and reacting the compound with a backbone structure according to formula with a dienophile to give a compound with a backbone structure according to formula: and converting said compound into the compound of formula by hydrolysis to yield the compound of formula wherein G is CHO ( i.e. an aldehyde) and further by decarbonylation to yield the compound of formula, wherein G is OH ( i.e. a phenol), or further by oxidation to yield the compound of formula wherein G is CO 2 H ( i.e. a carboxylic acid). wherein G is OH or CO 2 H, or ethers, esters or anhydrides thereof from biomass-derived compounds, comprising reacting a biomass-derived compound having a backbone structure according to formula: with a compound with formula: wherein X is O and z is 0, or X is N and z is 1, wherein R 1 and R 2 are each independently an optionally substituted and/or heteroatom containing hydrocarbyl group or a link to a heterogeneous support, and R 2 can also be hydrogen, to give a compound with a backbone structure according to formula: and reacting the compound with a backbone structure according to formula with a dienophile to give a compound with a backbone structure according to formula: and converting said compound into the compound of formula by hydrolysis to yield the compound of formula wherein G is CHO ( i.e. an aldehyde) and further by decarbonylation to yield the compound of formula, wherein G is OH ( i.e. a phenol), or further by oxidation to yield the compound of formula wherein G is CO 2 H ( i.e. a carboxylic acid).