mhurhangee/ep-ind-claims huggingface dataset:
A method for reducing the combustion chamber temperature during the operation of a gas oxidation system (101, 201, 301, 401) for the thermal treatment of a raw gas volumetric flow charged with oxidizable components, comprising the following steps of the method: a) conducting the raw gas volumetric flow through at least one upstream heat storage mass (2, 3) into a combustion chamber, wherein thermal energy stored in this heat storage mass (2, 3) is transferred to the raw gas volumetric flow and heats it up, b) oxidizing the components of the raw gas volumetric flow in the combustion chamber and thereby transforming the raw gas volumetric flow into a volumetric flow of pure gas, c) starting from the combustion chamber, conducting at least a portion of the pure gas volumetric flow or conducting it for at least part of the time into at least one downstream heat storage mass (2, 3), wherein thermal energy contained in the pure gas volumetric flow is transferred to this downstream heat storage mass (2, 3) and heats it up, d) introducing the pure gas volumetric flow into a pure gas channel, characterized by the following step of the method: e) during the operation of the gas oxidation system (101, 201, 301, 401), for a fraction of the oxidizable components in the raw gas volumetric flow for which, as a result of an exothermic reaction, more thermal energy is released than would be acceptable during the stationary operation of the gas oxidation system in order to maintain a specific maximum temperature, introducing outside air directly into the combustion chamber by means of a channel, whereupon the combustion chamber temperature falls and a shut-down of the system because of excessive temperature is prevented. a) conducting the raw gas volumetric flow through at least one upstream heat storage mass (2, 3) into a combustion chamber, wherein thermal energy stored in this heat storage mass (2, 3) is transferred to the raw gas volumetric flow and heats it up, b) oxidizing the components of the raw gas volumetric flow in the combustion chamber and thereby transforming the raw gas volumetric flow into a volumetric flow of pure gas, c) starting from the combustion chamber, conducting at least a portion of the pure gas volumetric flow or conducting it for at least part of the time into at least one downstream heat storage mass (2, 3), wherein thermal energy contained in the pure gas volumetric flow is transferred to this downstream heat storage mass (2, 3) and heats it up, d) introducing the pure gas volumetric flow into a pure gas channel,
A connector comprising a housing in which a terminal is accommodated and a retainer (20, 20A) which is mounted on the housing to prevent the terminal from moving in the direction of detachment, wherein a retainer insertion hole through which the retainer (20, 20A) is inserted, and a provisional locking projection and a final locking projection which project into the retainer insertion hole are provided in the housing, a bending deformation portion which bends and deforms by interference with each of the provisional locking projection and the final locking projection is provided in the retainer (20, 20A), and a locked portion is provided in the bending deformation portion, wherein the locked portion and the provisional locking projection are locked together to be brought into a provisional locking state in an intermediate insertion position of the retainer (20, 20A) into the retainer insertion hole, and the locked portion and the final locking projection are locked together to be brought into a final locking state in an insertion completion position of the retainer (20, 20A) into the retainer insertion hole, and characterized in that the locked portion is formed as a locking hole opened in the bending deformation portion, wherein the bending deformation portion is a guide portion provided continuously to a retainer main body, wherein in the guide portion, a beam portion surrounding the locking hole is formed thinner than the rest of the guide portion.
A handle for a wet razor comprising an elongated handle section as well as comprising a coupling section connected thereto for detachably attaching a cutting unit to the handle, wherein the coupling section comprises: - a housing section comprising a housing cavity, which has a longitudinal axis, an insertion opening at the end directed towards the cutting unit as well as an actuating opening on another housing section side; - a connector comprising fastening elements (13, 14), which engage with the housing section, and comprising a pin, which protrudes beyond the plane of the insertion opening and which can be inserted into a pin hole of the cutting unit formed in a complementary manner; - an ejector, which is inserted into the housing cavity in an axially displaceable manner at least in sections, comprising a spring element, which pushes the ejector axially into the hosing cavity, and comprising a ram, which protrudes beyond the plane of the insertion opening in response to axial displacement of the ejector in the direction towards the cutting unit, in order to run against the cutting unit and to displace the latter axially on the pin away from the housing section, wherein the ejector is formed in one piece with the spring element and the ram; - an actuating button, which engages through the actuating opening and acts on the ejector in order to provide for the axial shifting thereof. - a housing section comprising a housing cavity, which has a longitudinal axis, an insertion opening at the end directed towards the cutting unit as well as an actuating opening on another housing section side; - a connector comprising fastening elements (13, 14), which engage with the housing section, and comprising a pin, which protrudes beyond the plane of the insertion opening and which can be inserted into a pin hole of the cutting unit formed in a complementary manner; - an ejector, which is inserted into the housing cavity in an axially displaceable manner at least in sections, comprising a spring element, which pushes the ejector axially into the hosing cavity, and comprising a ram, which protrudes beyond the plane of the insertion opening in response to axial displacement of the ejector in the direction towards the cutting unit, in order to run against the cutting unit and to displace the latter axially on the pin away from the housing section, wherein the ejector is formed in one piece with the spring element and the ram; - an actuating button, which engages through the actuating opening and acts on the ejector in order to provide for the axial shifting thereof.
Ni-base superalloy composition which has the capability to build a γ/γ'-microstructure after a heat treatment, characterized in that said Ni-base superalloy has a chemical composition of (in wt.-%): 9.5 W, 9.2 Co, 8.1 Cr, 5.6 Al, 3.2 Ta, 2.4 Hf, 0.7 Ti, 0.5 Mo, 0.075 C, 0.015 Zr, 0.015 B, and the balance Ni, or a chemical composition of (in wt.-%): 10.0 W, 10.0 Co, 8.4 Cr, 5.5 Al, 3.0 Ta, 2.4 Hf, 1.0 Ti, 0.7 Mo, 0.15 C, 0.05 Zr, 0.015 B, and the balance Ni.
A machine for preparing juices from a frozen food preparation, characterized in that it comprises a digital interface, a pre-dilution unit, which comprises: • a water tank inside the machine; • a water pump for pumping the water towards a tubular resistor for heating the water; • a water outlet nozzle; • a grid for placing a cup; and a grinding and heating unit, which comprises: • a fitting block comprising a circular resistor traversed in its centre by a drive shaft of a motor; • a blade block, which is detachable from the machine, having a snap ring, a metal base and on one face of the metal base a cutting blade located in the centre, the blade block being coupled to a cup on the blade side, and the assembly formed by the cup and the blade block simultaneously engaging the fitting block and the drive shaft of a motor located in the centre of the fitting block. • a water tank inside the machine; • a water pump for pumping the water towards a tubular resistor for heating the water; • a water outlet nozzle; • a grid for placing a cup; • a fitting block comprising a circular resistor traversed in its centre by a drive shaft of a motor; • a blade block, which is detachable from the machine, having a snap ring, a metal base and on one face of the metal base a cutting blade located in the centre, the blade block being coupled to a cup on the blade side, and the assembly formed by the cup and the blade block simultaneously engaging the fitting block and the drive shaft of a motor located in the centre of the fitting block.
An electrical safety system comprising an electrical appliance and one or more remote devices, the electrical appliance comprising: a housing; internal electrical components within the housing configured to provide a function of the electrical appliance; a thermal sensor arranged to detect the surface temperature of the electrical components, the thermal sensor comprising an infrared sensor; a processor in communication with the thermal sensor, the processor configured to determine the presence of an electrical hazard when a detected surface temperature of the internal electrical components has exceeded a predetermined threshold; and a wireless communication link configured to allow communication with the one or more remote devices, wherein the electrical appliance is configured to send a signal to a remote device using the communications link when the processor determines the presence of an electrical hazard; wherein the electrical appliance and remote devices form a mesh network in which the electrical appliance and remote devices can communicate. a housing; internal electrical components within the housing configured to provide a function of the electrical appliance; a thermal sensor arranged to detect the surface temperature of the electrical components, the thermal sensor comprising an infrared sensor; a processor in communication with the thermal sensor, the processor configured to determine the presence of an electrical hazard when a detected surface temperature of the internal electrical components has exceeded a predetermined threshold; and a wireless communication link configured to allow communication with the one or more remote devices, wherein the electrical appliance is configured to send a signal to a remote device using the communications link when the processor determines the presence of an electrical hazard; wherein the electrical appliance and remote devices form a mesh network in which the electrical appliance and remote devices can communicate.
A fan motor apparatus (A, B) comprising: a blade; a rotary shaft; a hub; a rotor integrally molded with the blade, a top surface of the rotor including an air hole and the rotor being fixed to the rotary shaft; a balance adjustment hole (43b; 73), the balance adjustment hole being configured to adjust balance for rotation of the blade; and a protection cover (21, 51) attached to the top surface of the rotor, the protection cover including: a lid portion, the lid portion covering the top surface of the rotor, being placed at a position that hides the air hole and including a fixing hole portion configured to fix the protection cover to the rotary shaft; and an intake port (31, 61) in fluid communication with the air hole, configured to take air into the lid portion characterized in that the intake port is formed radially from the fixing hole portion toward an outer peripheral direction of the lid portion; the balance adjustment hole is provided on a front surface on an intake side of the hub; and an outer peripheral portion (21x; 51x) of the protection cover (21, 51) also serves as an inner wall of the balance adjustment hole (43b, 73). a blade; a rotary shaft; a hub; a rotor integrally molded with the blade, a top surface of the rotor including an air hole and the rotor being fixed to the rotary shaft; a balance adjustment hole (43b; 73), the balance adjustment hole being configured to adjust balance for rotation of the blade; and a protection cover (21, 51) attached to the top surface of the rotor, the protection cover including: a lid portion, the lid portion covering the top surface of the rotor, being placed at a position that hides the air hole and including a fixing hole portion configured to fix the protection cover to the rotary shaft; and an intake port (31, 61) in fluid communication with the air hole, configured to take air into the lid portion characterized in that a lid portion, the lid portion covering the top surface of the rotor, being placed at a position that hides the air hole and including a fixing hole portion configured to fix the protection cover to the rotary shaft; and an intake port (31, 61) in fluid communication with the air hole, configured to take air into the lid portion characterized in that the intake port is formed radially from the fixing hole portion toward an outer peripheral direction of the lid portion; the balance adjustment hole is provided on a front surface on an intake side of the hub; and an outer peripheral portion (21x; 51x) of the protection cover (21, 51) also serves as an inner wall of the balance adjustment hole (43b, 73).
A trimmer head, comprising: a spool formed with a winding portion for winding a trimmer line; a head housing formed with an accommodating space for accommodating at least a portion of the spool; and the trimmer head further comprises an intermediate element the trimmer head being characterized in that the intermediate element is configured for transmitting a torque between the spool and the head housing such that one of the spool and the head housing rotates with the other, the spool drives the intermediate element to rotate, and the intermediate element is slidably connected to the spool in a direction along a rotation axis or parallel to the rotation axis, the intermediate element is formed with driving teeth arranged sequentially in a circumferential direction around the rotation axis, a number of the driving teeth is at least two, and the head housing is formed with matching teeth for matching the driving teeth. a spool formed with a winding portion for winding a trimmer line; a head housing formed with an accommodating space for accommodating at least a portion of the spool; and the trimmer head further comprises an intermediate element the trimmer head being characterized in that the intermediate element is configured for transmitting a torque between the spool and the head housing such that one of the spool and the head housing rotates with the other, the spool drives the intermediate element to rotate, and the intermediate element is slidably connected to the spool in a direction along a rotation axis or parallel to the rotation axis, the intermediate element is formed with driving teeth arranged sequentially in a circumferential direction around the rotation axis, a number of the driving teeth is at least two, and the head housing is formed with matching teeth for matching the driving teeth.
A feederhouse for attaching a header to an agricultural combine, the feederhouse comprising: a sill plate attached to the feederhouse, wherein the sill plate supports a support beam of the header during operation of the header; a mounting hook with a hooked end, characterised in that the mounting hook is supported for forward and rearward movement with respect to the sill plate; and a locking pin configured to lock the mounting hook at either of a first position and a second position; wherein, when the support beam is supported by the sill plate and the mounting hook is locked in the first position, the header is disposed at a first angle with respect to the feederhouse; and wherein, when the support beam is supported by the sill plate and the mounting hook is locked in the second position, the header is disposed at a second angle with respect to the feederhouse. a sill plate attached to the feederhouse, wherein the sill plate supports a support beam of the header during operation of the header; a mounting hook with a hooked end, characterised in that the mounting hook is supported for forward and rearward movement with respect to the sill plate; and a locking pin configured to lock the mounting hook at either of a first position and a second position; wherein, when the support beam is supported by the sill plate and the mounting hook is locked in the first position, the header is disposed at a first angle with respect to the feederhouse; and wherein, when the support beam is supported by the sill plate and the mounting hook is locked in the second position, the header is disposed at a second angle with respect to the feederhouse.
A nozzle comprising: a deflector having an underside surface contoured to deliver fluid radially outwardly therefrom; a nozzle body having a central axis and defining an inlet, an outlet, a radius reduction valve, and an actuator for controlling the valve, the inlet capable of receiving fluid from a source, the outlet capable of delivering fluid to the underside surface of the deflector, and the radius reduction valve being adjustable to adjust the flow rate of fluid through the nozzle body; an arc adjustment valve disposed downstream of the radius reduction valve, the arc adjustment valve being adjustable to change the length of an arcuate opening for the distribution of fluid from the deflector within a predetermined arcuate span; and a spring disposed upstream of both the radius reduction valve and the arc adjustment valve, the spring configured to bypass the radius reduction valve in biasing the arc adjustment valve; wherein the actuator defines an outer surface of the nozzle body that is rotatable about the central axis to adjust the radius reduction valve with a torque independent of the flow rate through the nozzle body. a deflector having an underside surface contoured to deliver fluid radially outwardly therefrom; a nozzle body having a central axis and defining an inlet, an outlet, a radius reduction valve, and an actuator for controlling the valve, the inlet capable of receiving fluid from a source, the outlet capable of delivering fluid to the underside surface of the deflector, and the radius reduction valve being adjustable to adjust the flow rate of fluid through the nozzle body; an arc adjustment valve disposed downstream of the radius reduction valve, the arc adjustment valve being adjustable to change the length of an arcuate opening for the distribution of fluid from the deflector within a predetermined arcuate span; and a spring disposed upstream of both the radius reduction valve and the arc adjustment valve, the spring configured to bypass the radius reduction valve in biasing the arc adjustment valve; wherein the actuator defines an outer surface of the nozzle body that is rotatable about the central axis to adjust the radius reduction valve with a torque independent of the flow rate through the nozzle body.
Computer-implemented method for the processing of computer-generated holographic image data comprising: (a) a step of detecting, by at least one communication terminal (COM TERM), the presence of a wearer provided with a head-mounted computer-generated holographic image displaying device comprising a spatial light modulator for displaying computer-generated holograms; (b) responsive to the presence detected at step (a), a step of transmitting through optical communication, by at least one light source (LIGHT SOURC), computer-generated holographic image data from said device towards said communication terminal (COM TERM), wherein step (a) comprises a step (i) of detecting a movement for generating a control signal of command of a wearer provided with said head-mounted computer-generated holographic image displaying device, and, as a function of the recognition of the movement of step (i), a step (ii) of acquiring image data with a detector of the holographic image displaying device which are converted by a processor into the to be transmitted computer-generated holographic image data; and (c) a step of emitting, by said at least one light source (LIGHT SOURC), a light beam arranged for displaying the holographic image data by illumination of said spatial light modulator, wherein said light source (LIGHT SOURC) and said processor are built-in on said device; wherein said at least one communication terminal (COM TERM) is connected to a communication server (SERV) via a network (COM NETW). (a) a step of detecting, by at least one communication terminal (COM TERM), the presence of a wearer provided with a head-mounted computer-generated holographic image displaying device comprising a spatial light modulator for displaying computer-generated holograms; (b) responsive to the presence detected at step (a), a step of transmitting through optical communication, by at least one light source (LIGHT SOURC), computer-generated holographic image data from said device towards said communication terminal (COM TERM), wherein step (a) comprises a step (i) of detecting a movement for generating a control signal of command of a wearer provided with said head-mounted computer-generated holographic image displaying device, and, as a function of the recognition of the movement of step (i), a step (ii) of acquiring image data with a detector of the holographic image displaying device which are converted by a processor into the to be transmitted computer-generated holographic image data; and (c) a step of emitting, by said at least one light source (LIGHT SOURC), a light beam arranged for displaying the holographic image data by illumination of said spatial light modulator, wherein said light source (LIGHT SOURC) and said processor are built-in on said device; wherein said at least one communication terminal (COM TERM) is connected to a communication server (SERV) via a network (COM NETW). light modulator, wherein said light source (LIGHT SOURC) and said processor are built-in on said device; wherein said at least one communication terminal (COM TERM) is connected to a communication server (SERV) via a network (COM NETW).
A masterbatch for foam molding, having a true specific gravity of 0.80 g/cm 3 or more as measured in conformity with Water Displacement Method A of JIS K 7112 and comprising: a base resin; and 40 to 300 parts by weight of a thermally expandable microcapsule relative to 100 parts by weight of the base resin, characterized in that the base resin contains an olefin elastomer, the olefin elastomer having a melting point of 50°C to 120°C and a melt index of 2 to 20 g/10 min measured according to JIS K 7210-1 at 190°C and a load of 2.16 kg. a base resin; and 40 to 300 parts by weight of a thermally expandable microcapsule relative to 100 parts by weight of the base resin, characterized in that the base resin contains an olefin elastomer, the olefin elastomer having a melting point of 50°C to 120°C and a melt index of 2 to 20 g/10 min measured according to JIS K 7210-1 at 190°C and a load of 2.16 kg.