mhurhangee/patent-ind-claim-en huggingface dataset:
A thin film heater cooker comprising a plurality of thin film heating elements forming a two-dimensional web of neighboring thin film heating elements and at least one sensor unit , each of said thin film heating elements being supplied power by a busbar , wherein a plurality of combined heating cells is formed, each one by a plurality of thin film heating elements , each thin film heating element being in connection with a busbar selectively powered through a switch , characterized in that each thin film heating element is placed on an anodization layer so as to be at least partially delimited by two busbars at different co-planar sides relative to said thin film heating element , each thin film heating element is configured to be interposed between said anodization layer and an upper glass surface in the manner that said anodization layer covers both lower surface of said thin film heating element and lower surfaces of said two busbars in their entireties.
Use of a complex of a rosette nanotube and one or more nucleic acids for delivering the one or more nucleic acids into cells in vitro or ex vivo wherein the nanotube is formed from the self-assembly of - compounds having the formula wherein X is CH or nitrogen; R 2 is hydrogen or a linker group; Y is absent when R 2 is hydrogen or is an amino acid or polypeptide having an amino group covalently bound to an α-carbon of the amino acid and the amino group is covalently bound to the linker group R 2 ; and R 1 is hydrogen or an aliphatic moiety, such as alkyl, straight or branched chain, saturated or unsaturated; and salts thereof. wherein the linker group is (CH 2 ) n where n is an integer of 1, 2, 3, or 4, (CH 2 ) 3 CO, or - compounds having the formula wherein X is CH or nitrogen; R 2 is hydrogen or a linker group; Y is absent when R 2 is hydrogen or is an amino acid or polypeptide having an amino group covalently bound to an α-carbon of the amino acid and the amino group is covalently bound to the linker group R 2 ; and R 1 is hydrogen or an aliphatic moiety, such as alkyl, straight or branched chain, saturated or unsaturated; and salts thereof. wherein the linker group is (CH 2 ) n where n is an integer of 1, 2, 3, or 4, - compounds having the formula wherein X is CH or nitrogen; R 2 is hydrogen or a linker group; Y is absent when R 2 is hydrogen or is an amino acid or polypeptide having an amino group covalently bound to an α-carbon of the amino acid and the amino group is covalently bound to the linker group R 2 ; and R 1 is hydrogen or an aliphatic moiety, such as alkyl, straight or branched chain, saturated or unsaturated; and salts thereof. wherein the linker group is (CH 2 ) n where n is an integer of 1, 2, 3, or 4, (CH 2 ) 3 CO, or wherein X is CH or nitrogen; R 2 is hydrogen or a linker group; Y is absent when R 2 is hydrogen or is an amino acid or polypeptide having an amino group covalently bound to an α-carbon of the amino acid and the amino group is covalently bound to the linker group R 2 ; and R 1 is hydrogen or an aliphatic moiety, such as alkyl, straight or branched chain, saturated or unsaturated; and salts thereof. wherein the linker group is (CH 2 ) n where n is an integer of 1, 2, 3, or 4, (CH 2 ) 3 CO, or - compounds having the formula wherein X is CH or nitrogen; R 2 is hydrogen or a linker group; Y is absent when R 2 is hydrogen or is an amino acid or polypeptide having an amino group covalently bound to an α-carbon of the amino acid and the amino group is covalently bound to the linker group R 2 ; and R 1 is hydrogen or an aliphatic moiety, such as alkyl, straight or branched chain, saturated or unsaturated; and salts thereof. wherein the linker group is (CH 2 ) n where n is an integer of 1, 2, 3, or 4,
Method for producing a soft-magnetic alloy, comprising the provision of a precursor having a composition consisting substantially of 5 % w/w ≤Co ≤25 % w/w 0.3 % w/w ≤V ≤5.0 % w/w 0% w/w ≤Cr ≤3.0 % w/w 0% w/w ≤Si ≤3.0 % w/w 0% w/w ≤Mn ≤3.0 % w/w 0% w/w ≤Al ≤ 3.0 % w/w 0% w/w ≤Ta ≤0.5 % w/w 0% w/w ≤Ni ≤0.5 % w/w 0% w/w ≤Mo ≤0.5 % w/w 0% w/w ≤Cu ≤0.2 % w/w 0% w/w ≤Nb ≤0.25 % w/w 0% w/w ≤Ti ≤0.05 % w/w 0% w/w ≤Ce ≤0.05 % w/w 0% w/w ≤Ca ≤0.05 % w/w 0% w/w ≤Mg ≤0.05 % w/w 0% w/w ≤C ≤0.02 % w/w 0% w/w ≤Zr ≤0.1 % w/w 0% w/w ≤O ≤0.025 % w/w 0% w/w ≤S ≤0.015 % w/w rest iron, wherein Cr+Si+Al+Mn ≤ 3.0 % w/w, and up to 0.2 % w/w of other impurities, and having a cold-rolled texture, wherein the precursor has a phase transition from a BCC phase area into a BCC/FCC mixed area to an FCC phase area, wherein at increasing temperature the phase transition between the BCC phase area and the BCC/FCC mixed area occurs at a first transition temperature T Ü1 and at further increasing temperature the transition between the BCC/FCC mixed area and the FCC phase area occurs at a second transition temperature T Ü2 , as magnetic final annealing a heat treatment of the precursor at the end of all mechanical machining steps at a temperature T 1 > T Ü2 , followed by a cooling to room temperature, followed by heating to T 2 , wherein T 2 < T Ü2 , followed by a heat treatment at T 2 and then cooling to room temperature, wherein 930°C ≤ T 1 < T m , 700°C ≤ T 2 ≤ 1050°C, and T m is the solidus temperature, the cooling rate being 10°C/h to 900°C/h at least across the temperature range from T 1 to T 2 . rest iron, wherein Cr+Si+Al+Mn ≤ 3.0 % w/w, and up to 0.2 % w/w of other impurities, and having a cold-rolled texture, wherein the precursor has a phase transition from a BCC phase area into a BCC/FCC mixed area to an FCC phase area, wherein at increasing temperature the phase transition between the BCC phase area and the BCC/FCC mixed area occurs at a first transition temperature T Ü1 and at further increasing temperature the transition between the BCC/FCC mixed area and the FCC phase area occurs at a second transition temperature T Ü2 , at a temperature T 1 > T Ü2 , followed by a cooling to room temperature, followed by heating to T 2 , wherein T 2 < T Ü2 , followed by a heat treatment at T 2 and then cooling to room temperature, wherein 930°C ≤ T 1 < T m , 700°C ≤ T 2 ≤ 1050°C, and T m is the solidus temperature, the cooling rate being 10°C/h to 900°C/h at least across the temperature range from T 1 to T 2 .
Compressed-air device of a vehicle having an electro-pneumatic brake system which contains an electro-pneumatic parking-brake device with an auxiliary brake function, with at least the following features: a) compressed-air-actuated spring brake cylinders on at least one axle , b) an electronic parking-brake control unit , c) a parking-brake operating device for operating the parking-brake, which in when the auxiliary brake function is activated, emits auxiliary brake demand signals to the electronic parking-brake control unit in a manner that depends on the degree of actuation of a parking-brake operating element of the parking-brake operating device , d) a solenoid valve device controlled by the electronic parking-brake control unit , which as a function of the auxiliary brake demand signals from the parking-brake operating device controls auxiliary brake pressures in the compressed-air-actuated spring brake cylinders on the axle , characterized in that e) means for determining an axle load on the axle are provided, which means emit axle load signals that depend on the axle load on the axle at the time, to the electronic parking-brake control unit , wherein f) the electronic control unit is designed such that on receiving auxiliary brake demand signals from the parking-brake operating device it controls or regulates the auxiliary brake pressure for the compressed-air-actuated spring brake cylinders on the axle as a function of the axle load existing on the axle concerned. a) compressed-air-actuated spring brake cylinders on at least one axle , b) an electronic parking-brake control unit , c) a parking-brake operating device for operating the parking-brake, which in when the auxiliary brake function is activated, emits auxiliary brake demand signals to the electronic parking-brake control unit in a manner that depends on the degree of actuation of a parking-brake operating element of the parking-brake operating device , d) a solenoid valve device controlled by the electronic parking-brake control unit , which as a function of the auxiliary brake demand signals from the parking-brake operating device controls auxiliary brake pressures in the compressed-air-actuated spring brake cylinders on the axle , characterized in that e) means for determining an axle load on the axle are provided, which means emit axle load signals that depend on the axle load on the axle at the time, to the electronic parking-brake control unit , wherein f) the electronic control unit is designed such that on receiving auxiliary brake demand signals from the parking-brake operating device it controls or regulates the auxiliary brake pressure for the compressed-air-actuated spring brake cylinders on the axle as a function of the axle load existing on the axle concerned.
A conditioning system for providing cooling to a heat load , the conditioning system comprising: a scavenger plenum having an air inlet and outlet , the scavenger plenum configured to direct scavenger air in an air flow path from the air inlet to the air outlet; an evaporative cooler arranged inside the scavenger plenum in the air flow path and having a first cooling fluid circuit configured to circulate a first cooling fluid through the evaporative cooler, the evaporative cooler configured to selectively evaporate a portion of the first cooling fluid; a first cooling component arranged inside the scavenger plenum between the air inlet and the evaporative cooler, the first cooling component configured to selectively condition the scavenger air flowing through the first cooling component; a second cooling component arranged inside the scavenger plenum between the evaporative cooler and the air outlet and having a second cooling fluid circuit configured to circulate a second cooling fluid through the second cooling component, the second cooling component configured to reduce a temperature of the second cooling fluid using scavenger air; and a process cooling fluid circuit connected to at least one of the first cooling fluid circuit and the second cooling fluid circuit, the process cooling fluid circuit configured to provide a process cooling fluid to cool the heat load . a scavenger plenum having an air inlet and outlet , the scavenger plenum configured to direct scavenger air in an air flow path from the air inlet to the air outlet; an evaporative cooler arranged inside the scavenger plenum in the air flow path and having a first cooling fluid circuit configured to circulate a first cooling fluid through the evaporative cooler, the evaporative cooler configured to selectively evaporate a portion of the first cooling fluid; a first cooling component arranged inside the scavenger plenum between the air inlet and the evaporative cooler, the first cooling component configured to selectively condition the scavenger air flowing through the first cooling component; a second cooling component arranged inside the scavenger plenum between the evaporative cooler and the air outlet and having a second cooling fluid circuit configured to circulate a second cooling fluid through the second cooling component, the second cooling component configured to reduce a temperature of the second cooling fluid using scavenger air; and a process cooling fluid circuit connected to at least one of the first cooling fluid circuit and the second cooling fluid circuit, the process cooling fluid circuit configured to provide a process cooling fluid to cool the heat load .
An event camera comprising an event-based sensor configured to detect a change in light intensity for each pixel as an event, and asynchronously output an event signal including a time when the event is detected and a pixel position where the event has occurred; a buffer configured to store the event signal output by the event-based sensor within a predetermined period between a time, traced back to a past by an amount of a predetermined time from a reference time, and the reference time; and a storage configured to store an image; characterized in that the event camera comprises further an update unit configured to update the image stored in the storage based on the event signal such that the image stored in the storage becomes an image of an update time included in the predetermined period; wherein the update time is the reference time. an event-based sensor configured to detect a change in light intensity for each pixel as an event, and asynchronously output an event signal including a time when the event is detected and a pixel position where the event has occurred; a buffer configured to store the event signal output by the event-based sensor within a predetermined period between a time, traced back to a past by an amount of a predetermined time from a reference time, and the reference time; and a storage configured to store an image; characterized in that the event camera comprises further an update unit configured to update the image stored in the storage based on the event signal such that the image stored in the storage becomes an image of an update time included in the predetermined period; wherein the update time is the reference time.
A transparent laminate film comprising: a substrate layer and a coat layer containing particles and a binder component, wherein the particles have a particle size distribution having a first peak and a second peak in a particle size region of 7 to 30 μm, and a particle size corresponding to the second peak is larger than a particle size corresponding to the first peak by not less than 1 μm, of the particle sizes corresponding to the plurality of peaks, the smallest particle size is larger than the average thickness of the flat portion of the coat layer by not less than 0.1 μm, the particle size distribution and the particle size being measured using a light obscuration liquid particle counter conforming to JIS B9916, and the transparent laminate film has a total light transmittance at a thickness of 100 μm of not less than 70% in accordance with JIS K7361. a substrate layer and a coat layer containing particles and a binder component, wherein the particles have a particle size distribution having a first peak and a second peak in a particle size region of 7 to 30 μm, and a particle size corresponding to the second peak is larger than a particle size corresponding to the first peak by not less than 1 μm, of the particle sizes corresponding to the plurality of peaks, the smallest particle size is larger than the average thickness of the flat portion of the coat layer by not less than 0.1 μm, the particle size distribution and the particle size being measured using a light obscuration liquid particle counter conforming to JIS B9916, and the transparent laminate film has a total light transmittance at a thickness of 100 μm of not less than 70% in accordance with JIS K7361.
A communication path switching method, comprising: receiving (S210), by a first base station, a first message sent by a first terminal, wherein the first message is used to request to switch the first terminal from a first path for accessing a network to a second path for accessing the network by using a second terminal, and the first base station serves the first terminal, wherein the first message comprises a cell identifier of a cell in which the second terminal is located and an identifier of the second terminal; determining (S220), by the first base station according to the first message, a second base station that serves the second terminal; sending, by the first base station, a second message to the second base station, wherein the second message includes the identifier of the second terminal; receiving (S220), by the first base station, configuration information from the second base station, for the first terminal to access the network by using the second terminal, wherein the configuration information includes radio resource information for the first terminal to set up a radio bearer with the second terminal; and sending (S230), by the first base station, the configuration information to the first terminal. receiving (S210), by a first base station, a first message sent by a first terminal, wherein the first message is used to request to switch the first terminal from a first path for accessing a network to a second path for accessing the network by using a second terminal, and the first base station serves the first terminal, wherein the first message comprises a cell identifier of a cell in which the second terminal is located and an identifier of the second terminal; determining (S220), by the first base station according to the first message, a second base station that serves the second terminal; sending, by the first base station, a second message to the second base station, wherein the second message includes the identifier of the second terminal; receiving (S220), by the first base station, configuration information from the second base station, for the first terminal to access the network by using the second terminal, wherein the configuration information includes radio resource information for the first terminal to set up a radio bearer with the second terminal; and sending (S230), by the first base station, the configuration information to the first terminal.
An airfoil frame for a computer room air conditioner unit , the airfoil frame comprising: at least one airfoil frame member secured to a housing of the computer room air conditioner unit , the housing including a front , a back , two sides , a bottom , and an open top , the open top of the housing being configured to receive and direct IT air toward an interior region of the housing , the at least one airfoil frame member being secured to upper portions of the front of the housing at the open top of the housing , the at least one airfoil frame member including a leading edge extending from the front of the housing of the computer room air conditioner unit and a trailing edge extending in a direction that is generally parallel to the front of the housing of the computer room air conditioner unit , the at least one airfoil frame member being hollow in construction and further including an outer surface extending from the leading edge to the trailing edge , the outer surface having a plurality of slots formed therein to create a boundary layer over the surface of the at least one airfoil frame member , wherein adjacent slots of the plurality of slots are staggered with respect to one another. at least one airfoil frame member secured to a housing of the computer room air conditioner unit , the housing including a front , a back , two sides , a bottom , and an open top , the open top of the housing being configured to receive and direct IT air toward an interior region of the housing , the at least one airfoil frame member being secured to upper portions of the front of the housing at the open top of the housing , the at least one airfoil frame member including a leading edge extending from the front of the housing of the computer room air conditioner unit and a trailing edge extending in a direction that is generally parallel to the front of the housing of the computer room air conditioner unit , the at least one airfoil frame member being hollow in construction and further including an outer surface extending from the leading edge to the trailing edge , the outer surface having a plurality of slots formed therein to create a boundary layer over the surface of the at least one airfoil frame member , wherein adjacent slots of the plurality of slots are staggered with respect to one another.
An anti-skid system for an electromechanical braking system of at least one vehicle, in particular at least one railway vehicle, including at least one wheel, wherein said anti-skid system comprises: - an anti-skid module arranged to execute a predetermined anti-skid function and to provide an output, the value of which is determined by said predetermined anti-skid function; - a supervisor module arranged for monitoring said anti-skid module and to receive the output of said anti-skid module and a braking force application request signal , the value of which is indicative of a braking force application request value; wherein said supervisor module includes a braking force application request adjustment module arranged to adjust the value of said braking force application request signal according to said output of the anti-skid module ; wherein the supervisor module and the anti-skid module are modules that are distinct from each other, and the braking force application request adjustment module is arranged to adjust said braking force application request signal independently of the execution of the anti-skid function by the anti-skid module . - an anti-skid module arranged to execute a predetermined anti-skid function and to provide an output, the value of which is determined by said predetermined anti-skid function; - a supervisor module arranged for monitoring said anti-skid module and to receive the output of said anti-skid module and a braking force application request signal , the value of which is indicative of a braking force application request value; wherein said supervisor module includes a braking force application request adjustment module arranged to adjust the value of said braking force application request signal according to said output of the anti-skid module ; wherein the supervisor module and the anti-skid module are modules that are distinct from each other, and the braking force application request adjustment module is arranged to adjust said braking force application request signal independently of the execution of the anti-skid function by the anti-skid module .
A saddle chair, comprising: a first seat body including a first seat connection plate ; a second seat body including a second seat connection plate , the second seat body being juxtaposed to the first seat body ; a connecting assembly ; a longitudinal body ; a leg , extending from the lower surface of the connecting assembly ; wherein the second seat connection plate includes a second hole through which the longitudinal body goes, wherein the measure of the second hole is essentially larger than or the same as the diameter of the longitudinal body ; characterized in that there is a first wedge-like body connected to the upper end of the longitudinal body , the first wedge-like body including a slanted surface ; and a second wedge-like body including a slanted surface and having its slanted surface against the slanted surface of the first wedge-like body ; an eccentric shaft connected to the second wedge-like body ; whereby adjusting the mutual distance between the first seat body and the second seat body is realizable by moving the second wedge-like body by pushing or pulling the eccentric shaft . a first seat body including a first seat connection plate ; a second seat body including a second seat connection plate , the second seat body being juxtaposed to the first seat body ; a connecting assembly ; a longitudinal body ; a leg , extending from the lower surface of the connecting assembly ; wherein the second seat connection plate includes a second hole through which the longitudinal body goes, wherein the measure of the second hole is essentially larger than or the same as the diameter of the longitudinal body ; characterized in that there is a first wedge-like body connected to the upper end of the longitudinal body , the first wedge-like body including a slanted surface ; and a second wedge-like body including a slanted surface and having its slanted surface against the slanted surface of the first wedge-like body ; an eccentric shaft connected to the second wedge-like body ; whereby adjusting the mutual distance between the first seat body and the second seat body is realizable by moving the second wedge-like body by pushing or pulling the eccentric shaft .