mhurhangee/ep-ind-claims huggingface dataset:
A cooling apparatus of an internal combustion engine for straddle type vehicle comprising: a crank case of an internal combustion engine disposed below a passenger seat of the straddle type vehicle; a cooling fan provided on an end portion of a crank shaft which is directing the width direction of the vehicle and is rotatably supported on the crank case; a radiator disposed such that said cooling fan is opposite to a core surface; a radiator cover (70, 100) covering said radiator from the outside in the width direction of the vehicle, simultaneously on which cooling wind inlet openings (77, 107, 110) introducing the cooling wind from the outside are formed; and sound barriers (76, 103) formed on a part of or all of the upper area than a crank axis, out of core surface opposite area of said radiator covers (70, 100) which is opposite to the core surface of said radiator in the side view, wherein said cooling wind inlet openings (77, 107, 110) are formed on the area except said sound barriers (76, 103) in said radiator covers (70, 100), and wherein the area of said sound barriers (76, 103) is larger than the opening area of said cooling wind inlet openings (77, 107, 110), at least at the upper area than said crank axis in the core surface opposite area, characterized in that at least one sound barrier comprises a first sound barrier configured with the middle side wall of the radiator cover including a frame wall and a plurality of blades inside the core surface opposite area, and a second sound barrier formed between the plurality of blades inside the frame wall. a crank case of an internal combustion engine disposed below a passenger seat of the straddle type vehicle; a cooling fan provided on an end portion of a crank shaft which is directing the width direction of the vehicle and is rotatably supported on the crank case; a radiator disposed such that said cooling fan is opposite to a core surface; a radiator cover (70, 100) covering said radiator from the outside in the width direction of the vehicle, simultaneously on which cooling wind inlet openings (77, 107, 110) introducing the cooling wind from the outside are formed; and sound barriers (76, 103) formed on a part of or all of the upper area than a crank axis, out of core surface opposite area of said radiator covers (70, 100) which is opposite to the core surface of said radiator in the side view, wherein said cooling wind inlet openings (77, 107, 110) are formed on the area except said sound barriers (76, 103) in said radiator covers (70, 100), and wherein the area of said sound barriers (76, 103) is larger than the opening area of said cooling wind inlet openings (77, 107, 110), at least at the upper area than said crank axis in the core surface opposite area, characterized in that at least one sound barrier comprises a first sound barrier configured with the middle side wall of the radiator cover including a frame wall and a plurality of blades inside the core surface opposite area, and a second sound barrier formed between the plurality of blades inside the frame wall.
Coupling sleeve for a hydraulic coupling on a pressure medium line for establishing a form-fitting connection with a coupling plug, with a housing and a sealing unit, wherein the housing has a flow channel for a pressure medium and a coupling axis A, wherein the sealing unit comprises a sleeve body, a pressure sleeve and a valve tappet, wherein the sealing unit delimits a part of the flow channel, wherein the valve tappet is held via a tappet guide at the sleeve body in such a manner that the valve tappet is arranged in the flow channel, wherein the pressure sleeve surrounds the valve tappet, wherein the pressure sleeve is held to be displaceable along the coupling axis A between a closing position, in which the flow channel is closed by the pressure sleeve and an opening position, in which the flow channel is released by the pressure sleeve, wherein the pressure sleeve is loaded by a compression spring in the direction of its closing position and wherein for establishing a form-fitting connection with a coupling plug by a user a coupling force must be applied, characterised in that the size of the areas from which, at least in the closing position of the pressure sleeve with a pressure p of a pressure medium existing in the flow channel, results a force onto the pressure sleeve in the direction of the closing position, is selected in such a manner that from a predetermined, upper pressure value of the pressure p, a predetermined first threshold value of the coupling force is exceeded in order to prevent an establishment of a form-fitting connection with a coupling plug by a user.
A method for reclaiming energy when operating a turbine with a vaporous refrigerant, wherein a condenser is connected downstream of the turbine for cooling the vaporous refrigerant using a cooling medium, wherein the cooling medium is supplied from the condenser to a heat exchanger and absorbs heat, wherein the cooling medium is supplied from the heat exchanger to an evaporator of a heat pump where it gives off heat, wherein the cooling medium is supplied as a cooling medium from the evaporator of the heat pump to the condenser, wherein an additional cooling medium from a heat exchanger is brought to a higher temperature level by the evaporator of the heat pump, wherein the refrigerant supplied to the turbine is heated up by the heat exchanger by way of the additional cooling medium.
Door for an electrically self-sufficient boiler comprising a combustion chamber fitted with at least one burner and an electrical system arranged to ensure the operation of the boiler, said door being characterized in that it comprises: - a thermoelectric converter for converting thermal energy into electrical energy using the Seebeck effect, configured to convert the thermal energy generated by said at least one burner into electrical energy; and - an outlet for the electrical energy provided by said converter, configured to provide the electrical power to an electrical system of the boiler; the thermoelectric converter for converting thermal energy being positioned in contact with: - firstly, a first conducting element configured to be oriented toward combustion products of the boiler combustion chamber, forming the hot source of the converter; and - secondly, a second conducting element configured to be oriented toward a heat-transfer fluid of the boiler, forming the cold source of the converter. - a thermoelectric converter for converting thermal energy into electrical energy using the Seebeck effect, configured to convert the thermal energy generated by said at least one burner into electrical energy; and - an outlet for the electrical energy provided by said converter, configured to provide the electrical power to an electrical system of the boiler; - firstly, a first conducting element configured to be oriented toward combustion products of the boiler combustion chamber, forming the hot source of the converter; and - secondly, a second conducting element configured to be oriented toward a heat-transfer fluid of the boiler, forming the cold source of the converter.
A combination of a green porphyrin, an anti-VEGF antibody and an anti-inflammatory agent for use in a method for treating choroidal neovasculature in a human subject using photodynamic therapy, said method comprising: (a) administering the GP to an ocular target tissue said subject afflicted with said neovasculature, and irradiating said ocular target tissue and the GP with electromagnetic radiation containing a wavelength absorbable by said GP, (b) within 2 hours after completing step (a), administering to said subject an effective amount of said anti-VEGF antibody, and (c) subsequent administering to said subject an effective amount of the anti-inflammatory agent, wherein closure of CNV in said subject is effected, wherein the irradiation is at a fluence rate that delivers a total light dose of about 25 J/cm 2 at the fluence rate of about 300 mW/cm 2, or a total light dose of 15 J/cm 2, at the fluence rate of about 180 mW/cm 2. (a) administering the GP to an ocular target tissue said subject afflicted with said neovasculature, and irradiating said ocular target tissue and the GP with electromagnetic radiation containing a wavelength absorbable by said GP, (b) within 2 hours after completing step (a), administering to said subject an effective amount of said anti-VEGF antibody, and (c) subsequent administering to said subject an effective amount of the anti-inflammatory agent, wherein closure of CNV in said subject is effected,
An electrophotographic photoreceptor comprising an electroconductive support and at least a photosensitive layer formed on the support, wherein the photosensitive layer contains a charge transport substance represented by the following formula: wherein Ar 1 represents an aryl group having an alkoxy group, an aryloxy group, or an aralkyloxy group as a substituent, Ar 2 to Ar 5 each independently represent an aryl group which may have a substituent, Ar 6 to Ar 9 each independently represent a 1,4-phenylene group which may have a substituent; R 1 to R 4 each independently represent a hydrogen atom or an alkyl group; m and n each independently represent an integer of 1 or more and 3 or less; in the case where m or n is 2 or more, plurally existing R 1 to R 4 s each may be the same or different from each other.
A monitoring device for monitoring movement characteristics of an item with which the monitoring device is associated, the monitoring device comprising: a transducer operable to generate an electrical signal in response to movement of the item; a radio-frequency identification device (12, 13, 14) having a data recorder operable to record data on receipt of an electrical signal from said transducer, and a radio-frequency signal transmitter (12, 13) operable to transmit a radio-frequency signal indicative of data recorded by said data recorder; an electrical store operable to store energy on receipt of an electrical signal from said transducer, said electrical store being operable to serve as a supply of energy for the radio-frequency identification device (12, 13, 14); an electrical signal splitter operable to split an electrical signal generated by the transducer into a first portion and a second portion, and to provide said first portion to said electrical store and said second portion to said radio-frequency identification device (12, 13, 14) whereby to allow said data recorder to record data in dependence on said second portion whilst being provided with energy from said electrical store, stored in said electrical store on receipt of the first portion; characterized by a radio clock receiver associated with the data recorder, wherein the radio clock receiver is configured to receive a transmitted time code, to enable time data to be recorded in conjunction with said data recorded on receipt of an electrical signal. a transducer operable to generate an electrical signal in response to movement of the item; a radio-frequency identification device (12, 13, 14) having a data recorder operable to record data on receipt of an electrical signal from said transducer, and a radio-frequency signal transmitter (12, 13) operable to transmit a radio-frequency signal indicative of data recorded by said data recorder; an electrical store operable to store energy on receipt of an electrical signal from said transducer, said electrical store being operable to serve as a supply of energy for the radio-frequency identification device (12, 13, 14); an electrical signal splitter operable to split an electrical signal generated by the transducer into a first portion and a second portion, and to provide said first portion to said electrical store and said second portion to said radio-frequency identification device (12, 13, 14) whereby to allow said data recorder to record data in dependence on said second portion whilst being provided with energy from said electrical store, stored in said electrical store on receipt of the first portion; characterized by a radio clock receiver associated with the data recorder, wherein the radio clock receiver is configured to receive a transmitted time code, to enable time data to be recorded in conjunction with said data recorded on receipt of an electrical signal.
A computer implemented method comprising: Determining for each of a plurality of spatially separated regions of a surface, a respective measure of at least one vital sign wherein said measure of at least one vital sign comprises a heart-beat signal and/or a respiration signal for each of the spatially separated regions so as to form a plurality of heart-rate signals and/or a plurality of respiration signals; determining from said respective measures of at least one vital sign, homogeneity information (H1-5) associated with said respective measure, wherein said determining of homogeneity information comprises comparing said heart-beat signals and/or determining a correlation between a heart-beat signal and a respiration signal and using said homogeneity information (H1-5) to determine if said spatially separate regions of said surface are living tissue. Determining for each of a plurality of spatially separated regions of a surface, a respective measure of at least one vital sign wherein said measure of at least one vital sign comprises a heart-beat signal and/or a respiration signal for each of the spatially separated regions so as to form a plurality of heart-rate signals and/or a plurality of respiration signals; determining from said respective measures of at least one vital sign, homogeneity information (H1-5) associated with said respective measure, wherein said determining of homogeneity information comprises comparing said heart-beat signals and/or determining a correlation between a heart-beat signal and a respiration signal and using said homogeneity information (H1-5) to determine if said spatially separate regions of said surface are living tissue.
A method of visually inspecting portions left raw during a finishing of a blank of a cylinder head of a heat engine delimiting at least one combustion chamber, the cylinder head also having portions to be machined, characterized in that the visual inspection is carried out with a masking of the portions to be machined leaving visible to an operator only the portions left untreated for a visual inspection of the surface of these portions left untreated, the masking being done by inserting a control jig on and in the cylinder head.
Method for operating a food processor, wherein in a preparation operation at least one processing device of the food processor is actuated for the at least partially automatic preparation of at least one foodstuff, characterized by the following steps: a) determining at least one control value (106.1) by a first detection (105.1) of at least one control parameter during the preparation operation, the control parameter being specific to the preparation, b) determining at least one result value (106.2) by a second detection (105.2) of at least one result parameter, wherein the result parameter is specific to the result of the preparation, c) recording the control value (106.1) and the result value (106.2) in a preparation record so that it is associated with the preparation as a recorded preparation. a) determining at least one control value (106.1) by a first detection (105.1) of at least one control parameter during the preparation operation, the control parameter being specific to the preparation, b) determining at least one result value (106.2) by a second detection (105.2) of at least one result parameter, wherein the result parameter is specific to the result of the preparation, c) recording the control value (106.1) and the result value (106.2) in a preparation record so that it is associated with the preparation as a recorded preparation.
A catalyst composition for purifying an exhaust gas containing an organic nitrogen compound, ammonia, or a combination thereof, wherein (a) the catalyst composition contains (i) a copper oxide, (ii) zeolite, and (iii) one or more members selected from the group consisting of Pt, Pd, Ru, Rh, Ir and an alloy thereof, (b) a weight of the copper oxide relative to a sum of a weight of the copper oxide and a weight of the zeolite is in a range of 0.1 wt.% to 40 wt.%, (c) the zeolite in the catalyst composition has a SiO 2 /Al 2 O 3 molar ratio of 3 to 70, and the zeolite is one or more zeolites of a proton type, or is one or more zeolites ion-exchanged with a Group 8 metal, a Group 9 metal, a Group 10 metal or a Group 11 metal, (d) the catalyst composition is formed by mixing copper oxide particles and zeolite particles, (e) the catalyst composition is produced by mixing inorganic oxide particles selected from the group consisting of silica and titania having, carried thereon, the one or more members selected from the group consisting of Pt, Pd, Ru, Rh, Ir and an alloy thereof. (a) the catalyst composition contains (i) a copper oxide, (ii) zeolite, and (iii) one or more members selected from the group consisting of Pt, Pd, Ru, Rh, Ir and an alloy thereof, (b) a weight of the copper oxide relative to a sum of a weight of the copper oxide and a weight of the zeolite is in a range of 0.1 wt.% to 40 wt.%, (c) the zeolite in the catalyst composition has a SiO 2 /Al 2 O 3 molar ratio of 3 to 70, and the zeolite is one or more zeolites of a proton type, or is one or more zeolites ion-exchanged with a Group 8 metal, a Group 9 metal, a Group 10 metal or a Group 11 metal, (d) the catalyst composition is formed by mixing copper oxide particles and zeolite particles, (e) the catalyst composition is produced by mixing inorganic oxide particles selected from the group consisting of silica and titania having, carried thereon, the one or more members selected from the group consisting of Pt, Pd, Ru, Rh, Ir and an alloy thereof.
A method of eliminating residue from a flow of harvest containing fruit, said method comprising: moving a flow of harvest by a motorised conveyor in a longitudinal direction between upstream and downstream transverse shafts; feeding a flow of harvest to an inclined surface that is disposed in continuity with the conveyor and arranged to allow said flow of harvest to travel over it, said surface including an array of air passages (13, 14); and blowing air through said passages in order to eject residue from the flow of harvest as it is routed over said surface. moving a flow of harvest by a motorised conveyor in a longitudinal direction between upstream and downstream transverse shafts; feeding a flow of harvest to an inclined surface that is disposed in continuity with the conveyor and arranged to allow said flow of harvest to travel over it, said surface including an array of air passages (13, 14); and blowing air through said passages in order to eject residue from the flow of harvest as it is routed over said surface.
A casement for a window, the casement having at least a casement inner shell and a casement outer shell, said casement inner shell comprising essentially wood and said casement outer shell comprising essentially metal or plastic, with a frame middle seal preferably comprising an insulating and elastic material, being arranged on the window frame inner shell contacting the casement when the window is closed, with a casement middle seal preferably comprising an insulating and elastic material being arranged on the casement in such a manner that it contacts the window frame inner shell when the window is closed, characterised in that the casement inner shell has a circumferential casement profile arranged thereon, essentially comprising plastic, and via which the casement inner shell is connectable to the casement outer shell and which is configured to thermally separate the casement inner shell from the casement outer shell, said casement profile extending essentially to the outer side of the window pane, the casement profile being configured as a single piece in the form of a hollow section having a number of cavities formed therein, and the casement middle seal being arranged on the casement profile.
An underwater cleaning apparatus comprising: a cleaning machine configured to clean a target to be cleaned under water; and a controller configured to generate a cleaning route for cleaning the target to be cleaned, wherein the cleaning machine is configured to automously travel along the cleaning route, further comprising a camera mounted on the cleaning machine, wherein the controller is configured to determine a cleaning state of the target to be cleaned based on a captured image captured by the camera, wherein the controller is configured to generate the cleaning route based on a cleaned trace obtained by determination of the cleaning state, characterized in that the controller is configured to generate the cleaning route based on a water depth when the cleaning route cannot be generated based on the cleaned trace. a cleaning machine configured to clean a target to be cleaned under water; and a controller configured to generate a cleaning route for cleaning the target to be cleaned, wherein the cleaning machine is configured to automously travel along the cleaning route, further comprising a camera mounted on the cleaning machine, wherein the controller is configured to determine a cleaning state of the target to be cleaned based on a captured image captured by the camera, wherein the controller is configured to generate the cleaning route based on a cleaned trace obtained by determination of the cleaning state, characterized in that the controller is configured to generate the cleaning route based on a water depth when the cleaning route cannot be generated based on the cleaned trace.
A method, comprising: obtaining a surgical instrument handle for a surgical system, wherein the surgical instrument handle comprises: a trigger; an electric motor; and a microcontroller in signal communication with said trigger and said electric motor, wherein said microcontroller comprises a locking circuit; obtaining a surgical instrument attachment for the surgical system; operably attaching the surgical instrument attachment to the surgical instrument handle to form at least a portion of the surgical system; and entering, by an operator, an access code either directly into the surgical system via a keyboard or other suitable input arrangement, or into an external or remote access code input, to unlock the locking circuit of the microcontroller, wherein the microcontroller is configured to prevent actuation of the electric motor to cause an end effector to articulate until the access code has been entered into the surgical system. obtaining a surgical instrument handle for a surgical system, wherein the surgical instrument handle comprises: a trigger; an electric motor; and a microcontroller in signal communication with said trigger and said electric motor, wherein said microcontroller comprises a locking circuit; a trigger; an electric motor; and a microcontroller in signal communication with said trigger and said electric motor, wherein said microcontroller comprises a locking circuit; obtaining a surgical instrument attachment for the surgical system; operably attaching the surgical instrument attachment to the surgical instrument handle to form at least a portion of the surgical system; and entering, by an operator, an access code either directly into the surgical system via a keyboard or other suitable input arrangement, or into an external or remote access code input, to unlock the locking circuit of the microcontroller, wherein the microcontroller is configured to prevent actuation of the electric motor to cause an end effector to articulate until the access code has been entered into the surgical system.