mhurhangee/ep-ind-claims huggingface dataset:
Device for manufacturing hollow glass articles, namely an I.S. machine, having a plurality of stations disposed next to one another, comprising at least one channel system for supplying molten glass gobs to be formed, an arrangement of moulds for carrying out the forming process along with associated peripheral mechanisms, and a further arrangement for discharging finally formed hollow glass articles, having a carrier system for tools, measuring systems and other apparatuses which can be used for control and maintenance purposes, said carrier system being disposed to be moved along the machine, namely along a rail-like guide, and being able to stop at defined positions, characterised in that the carrier system forms a structure which is open towards the machine side, but otherwise formed in a closed manner, suspended on the guide and can be moved along same by motor, that at least one manipulating member (7, 11) is disposed within the carrier system, the free end (8, 12) of which manipulating member is arranged to guide a tool, a measuring member or another apparatus required for control and/or maintenance purposes, wherein the free end (8, 12) of the manipulating member (7, 11) can be moved between an active position facing the point of use on or in the machine, and an inactive position retracted into the carrier system.
Air-conditioning system for a rail vehicle, having a refrigeration circuit which is able to be switched between a cooling mode and a heating mode and which has - a first heat exchanger, which interacts with ambient air and works as a condenser in the cooling mode and as an evaporator in the heating mode, - a second heat exchanger, which conditions supply air for a passenger interior compartment, - an expansion valve, a compressor and a valve arrangement for switching between the cooling mode and the heating mode, characterized in that the refrigeration circuit - has a primary refrigeration circuit, which comprises the first heat exchanger, the expansion valve, the compressor, the valve arrangement for switching between the cooling mode and the heating mode and a primary side of a third heat exchanger, which works as an evaporator in the cooling mode and as a condenser in the heating mode, and - has a secondary refrigeration circuit, which comprises the secondary side of the third heat exchanger and the second heat exchanger, - wherein an activatable electric heating device for heating a coolant inflow for the second heat exchanger is arranged between a refrigerating fluid outlet on the secondary side of the third heat exchanger and a refrigerating fluid inlet of the second heat exchanger. - a first heat exchanger, which interacts with ambient air and works as a condenser in the cooling mode and as an evaporator in the heating mode, - a second heat exchanger, which conditions supply air for a passenger interior compartment, - an expansion valve, a compressor and a valve arrangement for switching between the cooling mode and the heating mode, - has a primary refrigeration circuit, which comprises the first heat exchanger, the expansion valve, the compressor, the valve arrangement for switching between the cooling mode and the heating mode and a primary side of a third heat exchanger, which works as an evaporator in the cooling mode and as a condenser in the heating mode, and - has a secondary refrigeration circuit, which comprises the secondary side of the third heat exchanger and the second heat exchanger, - wherein an activatable electric heating device for heating a coolant inflow for the second heat exchanger is arranged between a refrigerating fluid outlet on the secondary side of the third heat exchanger and a refrigerating fluid inlet of the second heat exchanger.
Electrode cap comprising at least one electrode assembly for placing on the head of a test subject, - wherein each of the electrode assemblies comprises: - an insulating layer, - two electrodes (12, 13) lying opposite each other on the insulating layer, namely a first measurement electrode facing the head of the test subject and a reference electrode facing away from the head of the test subject, and - a conductive body which abuts against the reference electrode and electrically contacts same and which is arranged on the side of the reference electrode facing away from the head of the test subject; and - wherein the individual conductive bodies of all of the electrode assemblies are connected to one another in an electrically conductive manner, characterised in that the conductive body of at least one or each of the electrode assemblies is formed by a fluid in electrical contact with the reference electrode, in particular a saline solution. - wherein each of the electrode assemblies comprises: - an insulating layer, - two electrodes (12, 13) lying opposite each other on the insulating layer, namely a first measurement electrode facing the head of the test subject and a reference electrode facing away from the head of the test subject, and - a conductive body which abuts against the reference electrode and electrically contacts same and which is arranged on the side of the reference electrode facing away from the head of the test subject; and - wherein the individual conductive bodies of all of the electrode assemblies are connected to one another in an electrically conductive manner, characterised in that the conductive body of at least one or each of the electrode assemblies is formed by a fluid in electrical contact with the reference electrode, in particular a saline solution.
Method for operating a vehicle having the steps: - providing the vehicle, - providing a control location in order to influence the vehicle, - intermittently regularly sending status information about a status of the vehicle from the vehicle to the control location, and - sending a pause command from the control location to the vehicle or vice versa, so that a use of a communication channel between the vehicle and the control location is momentarily refrained from, wherein the control location is designed, if no pause command was previously sent, to close the communication channel to the vehicle after a predetermined waiting time without transmitting status information, characterised in that the control location, if no pause command was previously sent, deletes the previously obtained status information after the predetermined waiting time without transmitting status information so that the vehicle is discharged from the control location, wherein the previously issued pause command results in the vehicle remaining registered in the control location even longer than the waiting time. - providing the vehicle, - providing a control location in order to influence the vehicle, - intermittently regularly sending status information about a status of the vehicle from the vehicle to the control location, and - sending a pause command from the control location to the vehicle or vice versa, so that a use of a communication channel between the vehicle and the control location is momentarily refrained from, wherein the control location is designed, if no pause command was previously sent, to close the communication channel to the vehicle after a predetermined waiting time without transmitting status information, characterised in that the control location, if no pause command was previously sent, deletes the previously obtained status information after the predetermined waiting time without transmitting status information so that the vehicle is discharged from the control location, wherein the previously issued pause command results in the vehicle remaining registered in the control location even longer than the waiting time.
A trigger-type pump dispenser attachable to a container, comprising: a housing with a front cylinder part and a rear inverted-L-shaped grip part integrally formed, a nozzle base attached to the housing and having a front nozzle part mounted thereon; a piston structure configured of a hollow-shaped piston and a hollow-shaped piston shaft and sliding inside the cylinder part; a spring which presses the hollow-shaped piston and the hollow-shaped piston shaft upward; a trigger positioned above the housing, having a front tip rotatably mounted on the housing, and having a mid part where a tip of the piston shaft abuts; and a valve rod disposed at a center part inside the cylinder part, wherein the hollow-shaped piston is integrally formed so that a large-diameter piston part, a small-diameter piston part, and an intermediate-diameter mid part have a same axis center, and the small-diameter piston part has a lip part inside, the valve rod has, at its tip part, a valve body having a valve function in cooperation with the lip part, and has an enlarged part at its base end part, and a finger abutting part of the inverted-L-shaped grip part is at rear of a force point of a thumb pad part of the trigger. a housing with a front cylinder part and a rear inverted-L-shaped grip part integrally formed, a nozzle base attached to the housing and having a front nozzle part mounted thereon; a piston structure configured of a hollow-shaped piston and a hollow-shaped piston shaft and sliding inside the cylinder part; a spring which presses the hollow-shaped piston and the hollow-shaped piston shaft upward; a trigger positioned above the housing, having a front tip rotatably mounted on the housing, and having a mid part where a tip of the piston shaft abuts; and a valve rod disposed at a center part inside the cylinder part, wherein the hollow-shaped piston is integrally formed so that a large-diameter piston part, a small-diameter piston part, and an intermediate-diameter mid part have a same axis center, and the small-diameter piston part has a lip part inside, the valve rod has, at its tip part, a valve body having a valve function in cooperation with the lip part, and has an enlarged part at its base end part, and a finger abutting part of the inverted-L-shaped grip part is at rear of a force point of a thumb pad part of the trigger.
A refrigerator comprising: a cabinet having a storage space defined therein; a door (22, 40) for opening and closing the storage space; a microphone module adapted to perform voice recognition of a user; a cap decoration (50, 70) on a top of the door (22, 40); a top recess (501, 701) defined in the cap decoration (50, 70); a door cover (51, 71) shielding the top recess (501, 701); and a voice input hole definedin the door cover (51, 71) to define a channel through which the voice is transmitted to the microphone module; wherein the voice input hole is defined in a microphone-module mount of the door cover (51, 71), wherein there is a controller for controlling an operation of the refrigerator based on the voice command input to the microphone module, wherein the microphone module includes: a microphone element configured to receive voice input; a microphone substrate configured for allowing the microphone element to be mounted thereon; and a sealing member, characterized in that the microphone module is received in the top recess (501,701); wherein the sealing member is disposed between and in tight contact with the microphone substrate and the microphone-module mount of the door cover (51, 71). a cabinet having a storage space defined therein; a door (22, 40) for opening and closing the storage space; a microphone module adapted to perform voice recognition of a user; a cap decoration (50, 70) on a top of the door (22, 40); a top recess (501, 701) defined in the cap decoration (50, 70); a door cover (51, 71) shielding the top recess (501, 701); and a voice input hole definedin the door cover (51, 71) to define a channel through which the voice is transmitted to the microphone module; wherein the voice input hole is defined in a microphone-module mount of the door cover (51, 71), wherein there is a controller for controlling an operation of the refrigerator based on the voice command input to the microphone module, wherein the microphone module includes: a microphone element configured to receive voice input; a microphone substrate configured for allowing the microphone element to be mounted thereon; and a sealing member, characterized in that the microphone module is received in the top recess (501,701); wherein the sealing member is disposed between and in tight contact with the microphone substrate and the microphone-module mount of the door cover (51, 71). a microphone element configured to receive voice input; a microphone substrate configured for allowing the microphone element to be mounted thereon; and a sealing member, characterized in that the microphone module is received in the top recess (501,701); wherein the sealing member is disposed between and in tight contact with the microphone substrate and the microphone-module mount of the door cover (51, 71).
A method for controlling a microstructure of an inorganic coating on an inorganic fiber, the method comprising: providing a fiber structure including at least one inorganic fiber having a coating thereon, the coating including an inorganic material having a first microstructure; providing an over-coating around the coating, the over-coating being a silicon carbide coating, or a combination of a silicon carbide coating and a free carbon coating; indirectly heating the inorganic material, using electromagnetic radiation, to convert the first microstructure to a second, different microstructure; and wherein the at least one inorganic fiber is a silicon carbide fiber and the inorganic material is boron nitride. providing a fiber structure including at least one inorganic fiber having a coating thereon, the coating including an inorganic material having a first microstructure; providing an over-coating around the coating, the over-coating being a silicon carbide coating, or a combination of a silicon carbide coating and a free carbon coating; indirectly heating the inorganic material, using electromagnetic radiation, to convert the first microstructure to a second, different microstructure; and wherein the at least one inorganic fiber is a silicon carbide fiber and the inorganic material is boron nitride.
An apparatus for additive manufacturing of at least one object, the apparatus comprising: a build chamber having a powder reservoir, a lower build plate, and a build insert that restricts the effective size of a powder bed to one or more smaller build zones above the build plate, the build insert having at least a first opening with one or more walls defining a first build area within the build insert, the first build area being smaller than the area of the build chamber, wherein the build insert is laterally offset from the powder reservoir; a first build support adapted to support powder within the first build area, the first build support configured to step downward within the first build area as the at least one object is being built layer-by-layer; a connecting rod extending between the build platform and the first build support, wherein the first build support is configured to step downward in conjunction with the build platform as the object(s) are being built layer-by-layer; and a powder coater for distributing a thin layer of powder over the build insert to define a powder bed in the first build area; characterized in that the respective build substrates are configured to be individually lowered into the respective build zones thereby creating individual powder beds for each object to be built. a build chamber having a powder reservoir, a lower build plate, and a build insert that restricts the effective size of a powder bed to one or more smaller build zones above the build plate, the build insert having at least a first opening with one or more walls defining a first build area within the build insert, the first build area being smaller than the area of the build chamber, wherein the build insert is laterally offset from the powder reservoir; a first build support adapted to support powder within the first build area, the first build support configured to step downward within the first build area as the at least one object is being built layer-by-layer; a connecting rod extending between the build platform and the first build support, wherein the first build support is configured to step downward in conjunction with the build platform as the object(s) are being built layer-by-layer; and a powder coater for distributing a thin layer of powder over the build insert to define a powder bed in the first build area; characterized in that the respective build substrates are configured to be individually lowered into the respective build zones thereby creating individual powder beds for each object to be built.
An insulating heat-radiating coating composition, comprising: a coating layer-forming component comprising a main resin and a curing agent; and an insulating heat-radiating filler comprised in an amount of 35 to 60 parts by weight based on 100 parts by weight of the main resin, wherein the insulating heat-radiating filler has an average particle diameter of 10 nm to 15 μm, and in the insulating heat-radiating filler, a ratio of D50 to D97 is 1: 4.5 or less, wherein the average particle diameter is determined by a volume cumulative particle size distribution of the insulating heat-radiating filler by using a laser diffraction or scattering particle size distribution analyser, and wherein D50 is the average particle diameter. a coating layer-forming component comprising a main resin and a curing agent; and an insulating heat-radiating filler comprised in an amount of 35 to 60 parts by weight based on 100 parts by weight of the main resin, wherein the insulating heat-radiating filler has an average particle diameter of 10 nm to 15 μm, and in the insulating heat-radiating filler, a ratio of D50 to D97 is 1: 4.5 or less, wherein the average particle diameter is determined by a volume cumulative particle size distribution of the insulating heat-radiating filler by using a laser diffraction or scattering particle size distribution analyser, and wherein D50 is the average particle diameter.
Brake spring intended to apply a radial force against a supporting arbor of a display of a watch including an elastic strip, an elastic casing organ adapted to be fastened to an attachment organ of a structure of a horological movement, and a retaining element of the elastic strip configured to cooperate with said elastic strip, so as to hold it in a first position, said elastic strip being capable of being released from said retaining element so as to occupy a second position under the effect of an elastic return force, wherein it is capable of applying a resulting radial force against the supporting arbor of a display.
A transformer, comprising: a first inductor configured as a first coil comprising conductive traces and including a first port; a second inductor configured as a second coil comprising conductive traces and magnetically coupled to the first inductor, the second inductor including a second port, the second inductor comprising a first portion configured to permit current flow in a clockwise direction and a second portion configured to permit current flow in a counter-clockwise direction, wherein the second coil is shaped in accordance with a figure eight configuration comprising an overlapped cross portion that couples the first portion and the second portion; and a third inductor configured as a third coil comprising conductive traces and magnetically coupled to the first inductor, the third inductor including a third port, wherein each of the first coil and the third coil are designed in a substantially rectangular shape that partially surrounds the second coil, wherein the third coil is configured to accommodate the second coil with its cross portion such that the counter-clockwise direction is opposite the clockwise direction to reduce magnetic coupling between the second inductor and the third inductor based on magnetic coupling cancellation. a first inductor configured as a first coil comprising conductive traces and including a first port; a second inductor configured as a second coil comprising conductive traces and magnetically coupled to the first inductor, the second inductor including a second port, the second inductor comprising a first portion configured to permit current flow in a clockwise direction and a second portion configured to permit current flow in a counter-clockwise direction, wherein the second coil is shaped in accordance with a figure eight configuration comprising an overlapped cross portion that couples the first portion and the second portion; and a third inductor configured as a third coil comprising conductive traces and magnetically coupled to the first inductor, the third inductor including a third port, wherein each of the first coil and the third coil are designed in a substantially rectangular shape that partially surrounds the second coil, wherein the third coil is configured to accommodate the second coil with its cross portion such that the counter-clockwise direction is opposite the clockwise direction to reduce magnetic coupling between the second inductor and the third inductor based on magnetic coupling cancellation.
A method for measuring of a liquid flow rate in each one of a number of liquid tap units in a liquid distribution system, including a centrally located liquid source which is connected via separate feeding conduits (FC1, FC2) to said liquid tap units (LT1, LT2), each including a liquid inlet (IN1, IN2) and at least one liquid tap, wherein the liquid pressure in each separate feeding conduit (FC1, FC2), upon opening said at least one liquid tap and a respective control valve (CV1, CV2) being located between the centrally located liquid source and the respective feeding conduit (FC1, FC2), will drop along the feeding conduit during a tapping operation, whereas the liquid pressure in said liquid source is maintained at a substantially higher pressure prevailing therein, comprising the steps of - providing, for each said separate feeding conduit (FC1, FC2), a first liquid pressure sensor (PS1, PS2) located anywhere along said separate feeding conduit or in the associated liquid tap unit (LT1, LT2), and a second liquid pressure sensor (PS'), serving as a reference pressure sensor common to all of said feeding conduits and being located adjacent to said centrally located liquid source, and - electronically connecting each of said first and second liquid pressure sensors (PS1, PS2 and PS') to a control unit adapted to periodically determine the liquid pressures at said first and second liquid pressure sensors, including the difference between these two liquid pressures, and, on the basis of said determination of said liquid pressures and said pressure difference, calculate the flow rate of liquid flowing through each separate feeding conduit (FC1, FC2), at least as long as there is a liquid flow at said inlet (!N1, IN2) to any liquid tap unit (LT1, LT2). - providing, for each said separate feeding conduit (FC1, FC2), a first liquid pressure sensor (PS1, PS2) located anywhere along said separate feeding conduit or in the associated liquid tap unit (LT1, LT2), and a second liquid pressure sensor (PS'), serving as a reference pressure sensor common to all of said feeding conduits and being located adjacent to said centrally located liquid source, and - electronically connecting each of said first and second liquid pressure sensors (PS1, PS2 and PS') to a control unit adapted to periodically determine the liquid pressures at said first and second liquid pressure sensors, including the difference between these two liquid pressures, and, on the basis of said determination of said liquid pressures and said pressure difference, calculate the flow rate of liquid flowing through each separate feeding conduit (FC1, FC2), at least as long as there is a liquid flow at said inlet (!N1, IN2) to any liquid tap unit (LT1, LT2).