mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry apparatus comprising: a drum rotatable on a shaft and comprising at least a predetermined region of a circumferential surface made of metal, the drum configured to hold laundry to be dried and having a plurality of penetrating holes provided in the circumferential surface of the drum ; a tub holding the drum, wherein the tub comprises a tub body and a tub opening formed at a front portion of the tub body ; an induction unit provided at the tub for heating the at least predetermined region of the circumferential surface of the drum by generating an electromagnetic field; and an air passage unit comprising a first duct in communication with the tub opening or the tub body and provided as a passage for exhausting air outside the tub , a second duct in communication with a tub body rear surface of the tub body or a tub body circumferential surface of the tub body and provided as a passage for introducing air into the tub and a fan for generating an air flow, characterized in that the air passage unit is configured such that the air delivered into the tub via the second duct is supplied to an internal space of the drum via the penetrating holes by the fan after exchanging heat with the circumferential surface of the drum and then exhausted to the first duct after passing through a drum opening provided at a front portion of the drum for loading the laundry into the drum . a drum rotatable on a shaft and comprising at least a predetermined region of a circumferential surface made of metal, the drum configured to hold laundry to be dried and having a plurality of penetrating holes provided in the circumferential surface of the drum ; a tub holding the drum, wherein the tub comprises a tub body and a tub opening formed at a front portion of the tub body ; an induction unit provided at the tub for heating the at least predetermined region of the circumferential surface of the drum by generating an electromagnetic field; and an air passage unit comprising a first duct in communication with the tub opening or the tub body and provided as a passage for exhausting air outside the tub , a second duct in communication with a tub body rear surface of the tub body or a tub body circumferential surface of the tub body and provided as a passage for introducing air into the tub and a fan for generating an air flow, characterized in that the air passage unit is configured such that the air delivered into the tub via the second duct is supplied to an internal space of the drum via the penetrating holes by the fan after exchanging heat with the circumferential surface of the drum and then exhausted to the first duct after passing through a drum opening provided at a front portion of the drum for loading the laundry into the drum .
A method performed at a beacon for broadcasting position reference signals, said method comprising: transmitting a network access signal indicative of a geographical location of said beacon to a network control node; generating position reference signal configuration information and transmitting said position reference signal configuration information as a configuration information signal to said network control node; receiving a network control signal from said network control node, said network control signal comprising a configuration control signal indicative of configuration information for broadcast of said position reference signals; wherein said network configuration control signal comprises one of a confirmation signal indicating said position reference signal configuration information generated by said beacon is to be used, or a configuration information signal indicating updated configuration information for broadcast of said position reference signal; and broadcasting position reference signals in accordance with said configuration information. transmitting a network access signal indicative of a geographical location of said beacon to a network control node; generating position reference signal configuration information and transmitting said position reference signal configuration information as a configuration information signal to said network control node; receiving a network control signal from said network control node, said network control signal comprising a configuration control signal indicative of configuration information for broadcast of said position reference signals; wherein said network configuration control signal comprises one of a confirmation signal indicating said position reference signal configuration information generated by said beacon is to be used, or a configuration information signal indicating updated configuration information for broadcast of said position reference signal; and broadcasting position reference signals in accordance with said configuration information.
A process for the production of urea ammonium nitrate comprising (a) subjecting ammonia and carbon dioxide to urea forming conditions so as to obtain an aqueous urea solution, (b) purifying the aqueous urea solution in a recovery section to remove residual ammonium carbamate so as to form a purified aqueous urea solution, and optionally subjecting at least part of the purified aqueous urea solution to evaporation so as to form concentrated urea liquid, (c) subjecting ammonia and nitric acid to ammonium nitrate forming conditions so as to form an aqueous ammonium nitrate solution; (d) combining said aqueous ammonium nitrate solution and at least a part of the purified aqueous urea solution and/or concentrated urea liquid in a urea ammonium nitrate section so as to obtain an aqueous solution of urea ammonium nitrate; (e) treating ammonia-containing off-gas resulting from the production of ammonium nitrate (AN off-gas) with acidic scrubbing liquid in a finishing treatment section having a gas inlet in fluid communication with a gas outlet of a finishing section of a urea production unit, wherein the finishing section is adapted to solidify urea liquid, and wherein said finishing treatment section is adapted to subject ammonia-containing off-gas of the finishing section to treatment with an acidic scrubbing liquid. (a) subjecting ammonia and carbon dioxide to urea forming conditions so as to obtain an aqueous urea solution, (b) purifying the aqueous urea solution in a recovery section to remove residual ammonium carbamate so as to form a purified aqueous urea solution, and optionally subjecting at least part of the purified aqueous urea solution to evaporation so as to form concentrated urea liquid, (c) subjecting ammonia and nitric acid to ammonium nitrate forming conditions so as to form an aqueous ammonium nitrate solution; (d) combining said aqueous ammonium nitrate solution and at least a part of the purified aqueous urea solution and/or concentrated urea liquid in a urea ammonium nitrate section so as to obtain an aqueous solution of urea ammonium nitrate; (e) treating ammonia-containing off-gas resulting from the production of ammonium nitrate (AN off-gas) with acidic scrubbing liquid in a finishing treatment section having a gas inlet in fluid communication with a gas outlet of a finishing section of a urea production unit, wherein the finishing section is adapted to solidify urea liquid, and wherein said finishing treatment section is adapted to subject ammonia-containing off-gas of the finishing section to treatment with an acidic scrubbing liquid.
A processor, comprising: a front end unit, including: first selection circuitry configured to select a predicted program counter from an input program counter, a prior speculative partial target address, and a prior target address; a level 1 branch target buffer (BTB) configured to generate a target address based on the predicted program counter; a BTB index predictor (BIP) configured to generate a prediction based on the predicted program counter and a global history, wherein the prediction includes a speculative partial target address, a global history value, a global history shift value, and a way prediction; and a level 1 hash perceptron (HP) configured to generate a taken signal based on the predicted program counter, wherein the taken signal indicates an estimation of whether a branch instruction is taken or not taken; wherein the BTB, the BIP and the HP are configured to generate respectively the target address, the prediction and the taken signal in parallel during a same branch prediction cycle. first selection circuitry configured to select a predicted program counter from an input program counter, a prior speculative partial target address, and a prior target address; a level 1 branch target buffer (BTB) configured to generate a target address based on the predicted program counter; a BTB index predictor (BIP) configured to generate a prediction based on the predicted program counter and a global history, wherein the prediction includes a speculative partial target address, a global history value, a global history shift value, and a way prediction; and a level 1 hash perceptron (HP) configured to generate a taken signal based on the predicted program counter, wherein the taken signal indicates an estimation of whether a branch instruction is taken or not taken; wherein the BTB, the BIP and the HP are configured to generate respectively the target address, the prediction and the taken signal in parallel during a same branch prediction cycle.
A method comprising: removing a section of a gas turbine engine component comprising a superalloy material; and installing a replacement section comprising a superalloy material in place of the removed section using a braze containing no boron or silicon, wherein the braze has the following composition by weight percent: Nickel 55 - 65, Titanium 15 - 25, and Chromium 15 - 25, wherein the weight percentages of Nickel, Titanium, and Chromium sum to 100 weight percent. removing a section of a gas turbine engine component comprising a superalloy material; and installing a replacement section comprising a superalloy material in place of the removed section using a braze containing no boron or silicon, wherein the braze has the following composition by weight percent: Nickel 55 - 65, Titanium 15 - 25, and Chromium 15 - 25, wherein the weight percentages of Nickel, Titanium, and Chromium sum to 100 weight percent.
Distributor boom of an agricultural device, in particular a distributor boom of a field sprayer , wherein the distributor boom comprises a plurality of boom portions (A1-A4), preferably designed as a lattice beam , which are pivotably coupled to one another by at least one joint , wherein the boom portions (A1-A4) can be moved between a working position extending approximately transversely to the working direction, and a folded transport position preferably extending approximately in the working direction, wherein at least one boom portion (A1-A4) comprises at least two, preferably continuous, upper outer profiles , at least one lower beam , and a plurality of diagonal elements , wherein the plurality of diagonal elements are arranged between the lower support and the upper outer profiles , wherein at least one transverse strut connecting the outer profiles is arranged between the at least two outer profiles , wherein at least one node point , at which the ends of at least two diagonal elements are joined, is associated with each transverse strut , wherein the boom portions (A1-A4) each comprise at least one one-piece stiffening element which is arranged on a side of the outer profile that faces the lower beam and so as to be adjacent to the transverse strut , and which is preferably disc-shaped, characterized in that at least two node points , which are connected to the at least one stiffening element , are associated with each transverse strut , and wherein a first node point is connected to a region of the stiffening element that abuts or is at least adjacent to an outer surface of at least one outer profile , and a further node point , starting from the first node point in the direction of a second outer profile , is connected to the stiffening element centrally between the two outer profiles .
A controller for configuring a lighting system , the lighting system comprising a lighting control device configured to receive a plurality of user inputs, wherein the plurality of user inputs are associated with predefined light scenes, wherein each predefined light scene is representative of lighting control instructions for one or more target lighting devices , the controller comprising: - a receiver configured to receive a signal indicative of an addition of a new lighting device to the lighting system , and to receive data indicative of light rendering capabilities of the new lighting device , and - a processor configured to: a) obtain, from a memory , lighting control settings of the lighting control device , wherein the lighting control settings are representative of the plurality of user inputs associated with the predefined light scenes, b) generate a new light scene based on the light rendering capabilities of the new lighting device , the new light scene comprising lighting control instructions for at least the new lighting device , and c) replace one of the plurality of predefined light scenes in the memory with the new light scene. - a receiver configured to receive a signal indicative of an addition of a new lighting device to the lighting system , and to receive data indicative of light rendering capabilities of the new lighting device , and - a processor configured to: a) obtain, from a memory , lighting control settings of the lighting control device , wherein the lighting control settings are representative of the plurality of user inputs associated with the predefined light scenes, b) generate a new light scene based on the light rendering capabilities of the new lighting device , the new light scene comprising lighting control instructions for at least the new lighting device , and c) replace one of the plurality of predefined light scenes in the memory with the new light scene. a) obtain, from a memory , lighting control settings of the lighting control device , wherein the lighting control settings are representative of the plurality of user inputs associated with the predefined light scenes, b) generate a new light scene based on the light rendering capabilities of the new lighting device , the new light scene comprising lighting control instructions for at least the new lighting device , and c) replace one of the plurality of predefined light scenes in the memory with the new light scene.
A method of using an intrinsically safe field maintenance tool to diagnose a HART process communication loop that communicates according to the HART communication protocol, the method comprising: attempting to communicate with a HART device on the loop in a normal communication mode; observing whether a normal response is received, namely a response received from the HART device in response to the attempted normal communication; receiving an error in the normal response from the HART device or not receiving a normal response from the HART device; and characterised by : attempting to communicate with the HART device in an enhanced communication mode where a signal with a stronger voltage level relative to the normal communication mode is generated; observing whether an enhanced response is received, namely a response received from the HART device in response to the attempted enhanced communication; and generating diagnostic information based upon the number of observed normal responses, observed enhanced responses, and observed non-responses. attempting to communicate with a HART device on the loop in a normal communication mode; observing whether a normal response is received, namely a response received from the HART device in response to the attempted normal communication; receiving an error in the normal response from the HART device or not receiving a normal response from the HART device; and characterised by : attempting to communicate with the HART device in an enhanced communication mode where a signal with a stronger voltage level relative to the normal communication mode is generated; observing whether an enhanced response is received, namely a response received from the HART device in response to the attempted enhanced communication; and generating diagnostic information based upon the number of observed normal responses, observed enhanced responses, and observed non-responses. attempting to communicate with the HART device in an enhanced communication mode where a signal with a stronger voltage level relative to the normal communication mode is generated; observing whether an enhanced response is received, namely a response received from the HART device in response to the attempted enhanced communication; and generating diagnostic information based upon the number of observed normal responses, observed enhanced responses, and observed non-responses.
A method of wireless communication performed by a user equipment, UE, comprising: obtaining one or more measurements to determine a channel busy ratio, CBR, associated with a sidelink resource pool that includes one or more time and frequency resources allocated to sidelink transmissions to or from the UE; and transmitting sidelink signaling to an assisted UE, wherein the sidelink signaling includes a sequence to jointly indicate a sidelink wakeup signal to wake up the assisted UE and resource assistance information indicating the one or more measurements associated with the sidelink resource pool. obtaining one or more measurements to determine a channel busy ratio, CBR, associated with a sidelink resource pool that includes one or more time and frequency resources allocated to sidelink transmissions to or from the UE; and transmitting sidelink signaling to an assisted UE, wherein the sidelink signaling includes a sequence to jointly indicate a sidelink wakeup signal to wake up the assisted UE and resource assistance information indicating the one or more measurements associated with the sidelink resource pool.
A method of generating a brown fat cell, the method comprising: isolating a stem cell from an obtained brown fat tissue; and culturing the stem cell in a differentiation medium not comprising an animal-based product, wherein the differentiation medium comprises insulin, dexamethasone, isobutylmethylxanthine, indomethacin, triiodothyronine (T3), rosiglitazone, fibronectin type III domain-containing protein 5 (FNDC5), and 0.5 to 20% human platelet lysate: thereby generating the brown fat cell, wherein the stem cell is positive for one or more of the following cell surface markers: CD63, CD90, HLA ABC, CD105, CD73, CD166, CD9, CD44, and wherein the stem cell is negative for one or more of the following cell surface markers: CD34, CD19, CD86, HLA DR, Lin, CD106, CD80, CD117. isolating a stem cell from an obtained brown fat tissue; and culturing the stem cell in a differentiation medium not comprising an animal-based product, wherein the differentiation medium comprises insulin, dexamethasone, isobutylmethylxanthine, indomethacin, triiodothyronine (T3), rosiglitazone, fibronectin type III domain-containing protein 5 (FNDC5), and 0.5 to 20% human platelet lysate: thereby generating the brown fat cell, wherein the stem cell is positive for one or more of the following cell surface markers: CD63, CD90, HLA ABC, CD105, CD73, CD166, CD9, CD44, and wherein the stem cell is negative for one or more of the following cell surface markers: CD34, CD19, CD86, HLA DR, Lin, CD106, CD80, CD117. thereby generating the brown fat cell, wherein the stem cell is positive for one or more of the following cell surface markers: CD63, CD90, HLA ABC, CD105, CD73, CD166, CD9, CD44, and wherein the stem cell is negative for one or more of the following cell surface markers: CD34, CD19, CD86, HLA DR, Lin, CD106, CD80, CD117.
An antibody that binds human PD-1 (SEQ ID NO: 1), comprising a light chain (LC) and a heavy chain (HC), wherein the light chain comprises a light chain variable region (LCVR) and the heavy chain comprises a heavy chain variable region (HCVR), wherein: the LCVR has the amino acid sequence given in SEQ ID NO: 15, and the HCVR has the amino acid sequence given in SEQ ID NO: 12; or the LCVR has the amino acid sequence given in SEQ ID NO: 15, and the HCVR has the amino acid sequence given in SEQ ID NO: 13; or the LCVR has the amino acid sequence given in SEQ ID NO: 15, and the HCVR has the amino acid sequence given in SEQ ID NO: 14. the LCVR has the amino acid sequence given in SEQ ID NO: 15, and the HCVR has the amino acid sequence given in SEQ ID NO: 12; or the LCVR has the amino acid sequence given in SEQ ID NO: 15, and the HCVR has the amino acid sequence given in SEQ ID NO: 13; or the LCVR has the amino acid sequence given in SEQ ID NO: 15, and the HCVR has the amino acid sequence given in SEQ ID NO: 14.
A low pressure enclosure "LPE" vehicle, comprising: a hull defining a cabin therein, the hull configured to travel within a LPE, wherein the cabin is configured to be pressurized; and a supplemental oxygen system configured to be activated and/or made accessible to one or more occupants within the cabin in a depressurized state such that a cabin pressure is less than a threshold cabin pressure, wherein the supplemental oxygen system includes one or more containers having one or more oxygen dispensing masks and/or an oxygen supply. wherein each container is configured to allow deployment of the one or more oxygen dispensing masks when cabin pressure sensed by a cabin pressure sensor and/or controller decreases below the threshold; and wherein each container includes a controllable container door to allow the one or more oxygen dispensing masks to drop out of the container when the cabin pressure decreases below the threshold for the set amount of time. a hull defining a cabin therein, the hull configured to travel within a LPE, wherein the cabin is configured to be pressurized; and a supplemental oxygen system configured to be activated and/or made accessible to one or more occupants within the cabin in a depressurized state such that a cabin pressure is less than a threshold cabin pressure, wherein the supplemental oxygen system includes one or more containers having one or more oxygen dispensing masks and/or an oxygen supply. wherein each container is configured to allow deployment of the one or more oxygen dispensing masks when cabin pressure sensed by a cabin pressure sensor and/or controller decreases below the threshold; and wherein each container includes a controllable container door to allow the one or more oxygen dispensing masks to drop out of the container when the cabin pressure decreases below the threshold for the set amount of time.