mhurhangee/patent-ind-claim-en huggingface dataset:
A hydraulic steering system for an agricultural working machine , with a steering assembly which is connected to a hydraulic circuit of the steering system , with a main steering pump which serves to supply the hydraulic circuit in normal operation as well as with an emergency steering pump which serves to supply the hydraulic circuit in normal operation and in emergency operation, characterized in that in the normal operation of the hydraulic steering system , a volumetric flow delivered by the emergency steering pump is withdrawn from the volumetric flow delivered by the main steering pump as a partial volumetric flow.
An exenatide modifier or pharmaceutically acceptable salts thereof having GLP-1 receptor agonist activity, as shown in formula (I): (Ex-4)-L-Y (I) wherein, Ex-4 is Exendin-4; L is for connecting Ex-4 with Y; L' is a hydrophilic chain containing an ether group; Y is an aliphatic chain with a terminal carboxyl group, wherein the exenatide modifier is: k is any integer between 6-20.
A patient treatment device , comprising: a controller ; a memory ; a first sensor , wherein the first sensor is configured to collect a first type of data from a patient, and the collected first type of data is stored in the memory, the collected first type of data including low resolution data of the first type of data collected at a lower sampling rate and higher resolution data of the first type of data collected at a higher sampling rate; a second sensor , wherein the second sensor is configured to collect a second type of data from the patient; and a transmitter , wherein the transmitter is controlled by the controller to send either low resolution data of the first type of data or high resolution data to an external system , wherein the high resolution data includes the higher resolution data of the first type of data and the collected second type of data; wherein the first sensor is configured to collect higher resolution data of the first type, the second sensor is configured to collect the second type of data, and the transmitter is controlled to send collected high resolution data based on the occurrence of an event detected based on the low resolution data. a controller ; a memory ; a first sensor , wherein the first sensor is configured to collect a first type of data from a patient, and the collected first type of data is stored in the memory, the collected first type of data including low resolution data of the first type of data collected at a lower sampling rate and higher resolution data of the first type of data collected at a higher sampling rate; a second sensor , wherein the second sensor is configured to collect a second type of data from the patient; and a transmitter , wherein the transmitter is controlled by the controller to send either low resolution data of the first type of data or high resolution data to an external system , wherein the high resolution data includes the higher resolution data of the first type of data and the collected second type of data; wherein the first sensor is configured to collect higher resolution data of the first type, the second sensor is configured to collect the second type of data, and the transmitter is controlled to send collected high resolution data based on the occurrence of an event detected based on the low resolution data.
A method comprising: providing separate flows of an anode liquid , an electrolyte liquid and a cathode liquid ; and bringing together and solidifying the separate flows to form a solid fibre-shaped battery (100, 200a-c) having a tubular electrolyte layer with an anode layer and a cathode layer arranged on different sides of the electrolyte layer, the electrolyte layer, the anode layer and the cathode layer being formed from the electrolyte liquid, the anode liquid and the cathode liquid respectively, wherein providing the separate flows of the anode liquid , electrolyte liquid and cathode liquid comprises providing the three liquids flowing in three respective subchannels separated by respective subchannel walls, the electrolyte liquid flowing through a tubular electrolyte subchannel and the anode liquid and cathode liquid flowing through respective subchannels on different sides of the tubular electrolyte subchannel, and wherein bringing together the separate flows comprises bringing the liquids to flow together in a layered arrangement within a single channel. providing separate flows of an anode liquid , an electrolyte liquid and a cathode liquid ; and bringing together and solidifying the separate flows to form a solid fibre-shaped battery (100, 200a-c) having a tubular electrolyte layer with an anode layer and a cathode layer arranged on different sides of the electrolyte layer, the electrolyte layer, the anode layer and the cathode layer being formed from the electrolyte liquid, the anode liquid and the cathode liquid respectively, wherein providing the separate flows of the anode liquid , electrolyte liquid and cathode liquid comprises providing the three liquids flowing in three respective subchannels separated by respective subchannel walls, the electrolyte liquid flowing through a tubular electrolyte subchannel and the anode liquid and cathode liquid flowing through respective subchannels on different sides of the tubular electrolyte subchannel, and wherein bringing together the separate flows comprises bringing the liquids to flow together in a layered arrangement within a single channel.
A method for producing rare earth magnet comprising the steps of applying a slurry of a powder in a solvent to a sintered magnet body of R 1 -Fe-B composition, wherein R 1 is one or more elements selected from Y, Sc and rare earth elements, the powder containing one or more compounds selected from an oxide, fluoride, oxyfluoride, hydroxide and hydride of R 2 , wherein R 2 is one or more elements selected from Y, Sc and rare earth elements, drying the slurry to coat the sintered magnet body with the powder, and heat treating the coated magnet body for causing R 2 to be absorbed in the sintered magnet body, the method further comprising the steps of: conveying the sintered magnet body by a conveyor so as to pass through the slurry, for thereby immersing the sintered magnet body in the slurry and applying the slurry to the sintered magnet body, and temporarily pushing up the sintered magnet body on a conveyor belt during the immersion duration, by a plurality of column or rod-like push-up members which protrude above the conveyor belt through insertion holes perforated in the conveyor belt, for thereby temporarily separating the sintered magnet body from the conveyor belt. conveying the sintered magnet body by a conveyor so as to pass through the slurry, for thereby immersing the sintered magnet body in the slurry and applying the slurry to the sintered magnet body, and temporarily pushing up the sintered magnet body on a conveyor belt during the immersion duration, by a plurality of column or rod-like push-up members which protrude above the conveyor belt through insertion holes perforated in the conveyor belt, for thereby temporarily separating the sintered magnet body from the conveyor belt.
A centrifugal separator comprising a separator bowl delimiting therein a separation space and being configured to rotate about a rotational axis and nozzle members arranged peripherally at the separator bowl , wherein each nozzle member forms a nozzle outlet providing a passage from the separation space to a space outside the separator bowl , and wherein the centrifugal separator comprises a protective member arranged downstream of each nozzle outlet at an outer periphery of the separator bowl , characterised in that the nozzle member secures the protective member in relation to the separator bowl , at least in one circumferential direction of the separator bowl . nozzle members arranged peripherally at the separator bowl , wherein each nozzle member forms a nozzle outlet providing a passage from the separation space to a space outside the separator bowl , and wherein the centrifugal separator comprises a protective member arranged downstream of each nozzle outlet at an outer periphery of the separator bowl , characterised in that the nozzle member secures the protective member in relation to the separator bowl , at least in one circumferential direction of the separator bowl .
A computer-implemented method performed by a data processing apparatus , the method comprising: receiving a signal comprising a current temperature from a temperature sensor near a motion sensor ; receiving at least one signal comprising a current temperature near at least one additional temperature sensor located in the same room as the motion sensor , but at another point throughout the room; determining an adjustment for the motion sensor based on the current temperature near the motion sensor , past temperatures near the motion sensor , at least one current temperature near the additional temperature sensor and at least one past temperature near the additional temperature sensor ; ; and sending the adjustment to the motion sensor. receiving a signal comprising a current temperature from a temperature sensor near a motion sensor ; receiving at least one signal comprising a current temperature near at least one additional temperature sensor located in the same room as the motion sensor , but at another point throughout the room; determining an adjustment for the motion sensor based on the current temperature near the motion sensor , past temperatures near the motion sensor , at least one current temperature near the additional temperature sensor and at least one past temperature near the additional temperature sensor ; ; and sending the adjustment to the motion sensor.
A toy firearm for accelerating a projectile in a target direction (Z), comprising: a barrel guiding the projectile in the target direction (Z), a shot release mechanism having a manually actuatable trigger configured such that the shot release mechanism is triggered upon operating the trigger to accelerate the projectile , and a locking device that can be brought into a locking position and into a release position different from the locking position, the locking device being configured to act on the trigger so that the trigger cannot be actuated when the locking device is in the locking position, and so that the trigger can be actuated when the locking device is in the release position, wherein the locking device is rotatably mounted about an axis of rotation (S) and can be brought from the locking position to the release position and/or from the release position to the locking position by a rotation about the axis of rotation (S), and the locking device can be brought from the locking position to the release position by introducing the projectile into an intended firing position of the projectile , and wherein the toy firearm further comprises a holding device configured to retain the locking device in the locking position and/or to bring the locking device into the locking position. a barrel guiding the projectile in the target direction (Z), a shot release mechanism having a manually actuatable trigger configured such that the shot release mechanism is triggered upon operating the trigger to accelerate the projectile , and a locking device that can be brought into a locking position and into a release position different from the locking position, the locking device being configured to act on the trigger so that the trigger cannot be actuated when the locking device is in the locking position, and so that the trigger can be actuated when the locking device is in the release position, wherein the locking device is rotatably mounted about an axis of rotation (S) and can be brought from the locking position to the release position and/or from the release position to the locking position by a rotation about the axis of rotation (S), and the locking device can be brought from the locking position to the release position by introducing the projectile into an intended firing position of the projectile , and wherein the toy firearm further comprises a holding device configured to retain the locking device in the locking position and/or to bring the locking device into the locking position.
Antenna apparatus , comprising: a control unit ; an analysis unit ; at least one first transmitter unit ; at least one first receiver unit ; wherein the control unit is configured to transmit a transmission signal by means of the at least one first transmitter unit ; wherein the analysis unit is configured to receive at least two reception signals by means of the at least one first receiver unit ; wherein the control unit is configured to operate the at least one first transmitter unit such that the analysis unit determines a profile of a surface of an object from the at least two reception signals received; characterized in that the analysis unit is configured to identify an error in determining the profile of the surface of the object; and the analysis unit is configured, upon identifying the error, to actuate the control unit such that the analysis unit determines a distance of the surface of the object from the transmitter unit and/or from the receiver unit instead of determining the profile of the surface of the object. a control unit ; an analysis unit ; at least one first transmitter unit ; at least one first receiver unit ; wherein the control unit is configured to transmit a transmission signal by means of the at least one first transmitter unit ; wherein the analysis unit is configured to receive at least two reception signals by means of the at least one first receiver unit ; wherein the control unit is configured to operate the at least one first transmitter unit such that the analysis unit determines a profile of a surface of an object from the at least two reception signals received; characterized in that the analysis unit is configured to identify an error in determining the profile of the surface of the object; and the analysis unit is configured, upon identifying the error, to actuate the control unit such that the analysis unit determines a distance of the surface of the object from the transmitter unit and/or from the receiver unit instead of determining the profile of the surface of the object.
A prefabricated roofing system panel comprising: a cover board ; the cover board comprising a high-density predominantly polymer material core layer ; the high-density core layer of the cover board having a length, a width, and a thickness; the high density core layer of the cover board having a top major surface and a bottom major surface that are each defined by the length and the width of the high density core layer; an insulation board , the insulation board comprising a low-density predominantly polymer material foam core layer ; the low-density foam core layer of the insulation board having a length, a width, and a thickness; the low-density foam core layer of the insulation board having a top major surface and a bottom major surface that are each defined by the length and the width of the low-density foam core layer; and the bottom major surface of the high-density core layer of the cover board being bonded to the top major surface of the low-density foam core layer of the insulation board; and the bottom major surface of the high-density core layer of the cover board and the top major surface of the low-density foam core layer of the insulation board being substantially coextensive, characterized in that the high-density core layer of the cover board having a density between 0.1 g/cm 3 (6 lbs/ft 3 ) and 0.4 g/cm 3 (25 lbs/ft 3 ); the high-density core layer of the cover board having a thickness being 0.2 cm (0.08 inches) or greater and the low-density foam core layer of the insulation board having a density less than 0.1 g/cm 3 (6 lbs/ft 3 ). a cover board ; the cover board comprising a high-density predominantly polymer material core layer ; the high-density core layer of the cover board having a length, a width, and a thickness; the high density core layer of the cover board having a top major surface and a bottom major surface that are each defined by the length and the width of the high density core layer; an insulation board , the insulation board comprising a low-density predominantly polymer material foam core layer ; the low-density foam core layer of the insulation board having a length, a width, and a thickness; the low-density foam core layer of the insulation board having a top major surface and a bottom major surface that are each defined by the length and the width of the low-density foam core layer; and the bottom major surface of the high-density core layer of the cover board being bonded to the top major surface of the low-density foam core layer of the insulation board; and the bottom major surface of the high-density core layer of the cover board and the top major surface of the low-density foam core layer of the insulation board being substantially coextensive, characterized in that the high-density core layer of the cover board having a density between 0.1 g/cm 3 (6 lbs/ft 3 ) and 0.4 g/cm 3 (25 lbs/ft 3 ); the high-density core layer of the cover board having a thickness being 0.2 cm (0.08 inches) or greater and the low-density foam core layer of the insulation board having a density less than 0.1 g/cm 3 (6 lbs/ft 3 ).
A composition comprising: (a) 2-90 mol-% phosphate ester anions of formula (I) wherein R 1 and R 2 each independently are H or C 1-18 -alkyl, and R 3 is alkanediyl; and (b) 10-98 mol-% aromatic carboxylate anions; each based on the total of (a) and (b) in the composition; (d) 1-35 mol-% aluminum (III) cations; (e) 10-96 mol-% sodium cations; (g) 0-60 mol-% lithium cations; and (h) 0-20 mol-% zinc (II) cations, each based on the total of (d), (e), (g) and (h) in the composition; and the composition contains ≥ 5 wt.-% fatty acid salts. (a) 2-90 mol-% phosphate ester anions of formula (I) wherein R 1 and R 2 each independently are H or C 1-18 -alkyl, and R 3 is alkanediyl; and (b) 10-98 mol-% aromatic carboxylate anions; each based on the total of (a) and (b) in the composition; (d) 1-35 mol-% aluminum (III) cations; (e) 10-96 mol-% sodium cations; (g) 0-60 mol-% lithium cations; and (h) 0-20 mol-% zinc (II) cations, each based on the total of (d), (e), (g) and (h) in the composition; and the composition contains ≥ 5 wt.-% fatty acid salts.
An apparatus comprising: a first circuit configured to generate a clock inhibit signal ; a second circuit configured to generate a divided clock signal based, at least in part, on a clock select signal and the clock inhibit signal, wherein the second circuit is configured to generate the divided clock signal based on selecting a clock divider reference signal from at least one of a first clock signal or a second clock signal using the clock select signal, wherein the second circuit is configured to change the clock divider reference signal selection when the clock inhibit signal is asserted and maintain the clock divider reference signal selection when the clock inhibit signal is not asserted; and a phase detector configured to determine a phase difference between a first reference signal and a second reference signal, wherein the second circuit is configured to change the clock divider reference signal selection based, at least in part, on the phase difference. a first circuit configured to generate a clock inhibit signal ; a second circuit configured to generate a divided clock signal based, at least in part, on a clock select signal and the clock inhibit signal, wherein the second circuit is configured to generate the divided clock signal based on selecting a clock divider reference signal from at least one of a first clock signal or a second clock signal using the clock select signal, wherein the second circuit is configured to change the clock divider reference signal selection when the clock inhibit signal is asserted and maintain the clock divider reference signal selection when the clock inhibit signal is not asserted; and a phase detector configured to determine a phase difference between a first reference signal and a second reference signal, wherein the second circuit is configured to change the clock divider reference signal selection based, at least in part, on the phase difference.
A sulfated polysaccharide or a pharmaceutically acceptable salt or ester thereof for use in the prevention of oral mucositis in a subject exposed to ionizing radiation, said use comprising administering to the subject subcutaneously or intravenously said compound after the subject has been exposed to ionizing radiation, wherein the sulfated polysaccharide or a pharmaceutically acceptable salt or ester thereof comprises a modified hyaluronan or a pharmaceutically acceptable salt or ester thereof, wherein the modified hyaluronan or its pharmaceutically acceptable salt or ester comprises hyaluronan comprising at least one sulfate group and at least one primary C-6 hydroxyl position of an N-acetyl-glucosamine residue substituted with an alkyl group wherein the alkyl group is methyl, at least one C-2 hydroxyl proton and/or C-3 hydroxyl proton is substituted with a sulfate group, and the modified hyaluronan or its pharmaceutically acceptable salt or ester has a molecular weight of 2 kDa to 10 kDa. wherein the sulfated polysaccharide or a pharmaceutically acceptable salt or ester thereof comprises a modified hyaluronan or a pharmaceutically acceptable salt or ester thereof, wherein the modified hyaluronan or its pharmaceutically acceptable salt or ester comprises hyaluronan comprising at least one sulfate group and at least one primary C-6 hydroxyl position of an N-acetyl-glucosamine residue substituted with an alkyl group wherein the alkyl group is methyl, at least one C-2 hydroxyl proton and/or C-3 hydroxyl proton is substituted with a sulfate group, and the modified hyaluronan or its pharmaceutically acceptable salt or ester has a molecular weight of 2 kDa to 10 kDa.
An isolated antibody that selectively binds SSTR2 extracellular epitope on tumor cells, comprising a variable heavy (V H ) domain having CDR1, CDR2 and CDR3 sequences and a variable light (V L ) domain having CDR1, CDR2 and CDR3 sequences, wherein the CDR1 sequence of the V H domain comprises the amino acid sequence SEQ ID NO:1 or SEQ ID NO:26; the CDR2 sequence of the V H domain comprises the amino acid sequence SEQ ID NO:2 or SEQ ID NO:27; the CDR3 sequence of the V H domain comprises the amino acid sequence SEQ ID NO:3; the CDR1 sequence of the V L comprises the amino acid sequence SEQ ID NO:4; the CDR2 sequence of the V L domain comprises the amino acid sequence SEQ ID NO:5; and the CDR3 sequence of the V L domain comprises the amino acid sequence SEQ ID NO:6 or SEQ ID NO:28.
Method of preparing a vegan foodstuff comprising the steps of (i) providing a vegetable mash, wherein the vegetable mash comprises 80 to 90 wt.% of at least one vegetable based on the total weight of the foodstuff; (ii) adding at least one hydrocolloid to the vegetable mash to obtain a mixture, wherein the amount of the at least one hydrocolloid is 1 to 2.5 wt.% based on the total weight of the foodstuff and wherein the at least one hydrocolloid is agar-agar; and (iii) heating the mixture at a temperature of 70 to 120 °C for 0.5 to 10 minutes. (i) providing a vegetable mash, wherein the vegetable mash comprises 80 to 90 wt.% of at least one vegetable based on the total weight of the foodstuff; (ii) adding at least one hydrocolloid to the vegetable mash to obtain a mixture, wherein the amount of the at least one hydrocolloid is 1 to 2.5 wt.% based on the total weight of the foodstuff and wherein the at least one hydrocolloid is agar-agar; and (iii) heating the mixture at a temperature of 70 to 120 °C for 0.5 to 10 minutes.