mhurhangee/ep-ind-claims huggingface dataset:
Circuit assembly for the electrical control of an electro-magnetically controlled pneumatic inline valve configuration having a common voltage supply via a backplane, at which an actuator voltage provided by an electric supply circuit can be delivered to each pneumatic valve and the magnet coil (100, 101) of the valve is controllable by a subordinate magnetic control via a load switch (C 1, C 2) assigned to each magnet coil (100, 101) such that one valve only switches when an actuator voltage is applied and the magnet coil (100, 101) is triggered by the magnetic control, characterized in that at least two supply circuits are provided providing at least two actuator voltages (U A1, U A2) that are independent from each other and are available at every point of the backplane and of which one each can be selectively delivered via a manual selection switch assigned to each valve, and at least one of the actuator voltages (U A1, U A2) can be selectively turned off by an external shutoff module.
A particulate material comprising: a shaped abrasive particle having a body including alumina, the body comprising: a first layer including a central region including the geometric center of the body having a first dopant concentration (D 1c); and a second layer overlying the first layer, the second layer including a peripheral region including an external surface of the body spaced apart from the geometric center having a second dopant concentration (D 2c); wherein the body comprises a dopant concentration difference (ΔD c) between the first dopant concentration and the second dopant concentration of at least 0.2 wt%, the dopant concentration difference (ΔDc) being defined by the equation (C1-C2/C1)x100%, C1 being the higher concentration of dopant material and C2 being the lower concentration of dopant material; and wherein the first layer and the second layer are arranged in a stepped configuration relative to each other, wherein the stepped configuration is defined by a lateral shift of the first layer with respect to the second layer. a first layer including a central region including the geometric center of the body having a first dopant concentration (D 1c); and a second layer overlying the first layer, the second layer including a peripheral region including an external surface of the body spaced apart from the geometric center having a second dopant concentration (D 2c); wherein the body comprises a dopant concentration difference (ΔD c) between the first dopant concentration and the second dopant concentration of at least 0.2 wt%, the dopant concentration difference (ΔDc) being defined by the equation (C1-C2/C1)x100%, C1 being the higher concentration of dopant material and C2 being the lower concentration of dopant material; and wherein the first layer and the second layer are arranged in a stepped configuration relative to each other, wherein the stepped configuration is defined by a lateral shift of the first layer with respect to the second layer.
Storage device for mobile provision of data at a technical installation, comprising: a first connector for mechanical connection to a complementary mating connector, a second connector adjoining the first connector, and a housing enclosing the first and second connectors (12, 14), wherein the second connector is configured to releasably receive a storage medium in a receptacle and to contact power and data connections of the storage medium when the storage medium is in the receptacle, wherein the first connector is coupled to the second connector and, as a result of the coupling, the power and data connections of the storage medium can be contacted via the first connector, and wherein the first connector is a round plug connector with a connecting element having a circular cross-section or a heavy-duty connector realising a specific connection for a technical installation, characterized in that the first connector and the second connector are immovable relative to each other and together as a unit are rotatably mounted in the housing relative thereto. a first connector for mechanical connection to a complementary mating connector, a second connector adjoining the first connector, and a housing enclosing the first and second connectors (12, 14), wherein the second connector is configured to releasably receive a storage medium in a receptacle and to contact power and data connections of the storage medium when the storage medium is in the receptacle, wherein the first connector is coupled to the second connector and, as a result of the coupling, the power and data connections of the storage medium can be contacted via the first connector, and wherein the first connector is a round plug connector with a connecting element having a circular cross-section or a heavy-duty connector realising a specific connection for a technical installation, characterized in that the first connector and the second connector are immovable relative to each other and together as a unit are rotatably mounted in the housing relative thereto.
A glove pair holding system for detachably connecting a first and second glove (14, 16) of a glove pair to a first holding element of a holding device, such as a belt, by means of holding elements which the gloves have, wherein the first glove has a second holding element and the second glove has third and fourth holding elements (24, 26), wherein the holding elements are designed such that both the gloves are detachably connected to one another, and one glove or the glove pair are detachably connected to the first holding element, characterized in that the first holding element and the second holding element are designed to operate identically such that mutual holding is ruled out, and that the third and fourth holding elements (24, 26) are designed to operate identically such that holding both on the first holding element and on the second holding element is enabled, or that the first holding element and the third or fourth holding elements (24, 26) are designed to operate identically such that mutual holding is ruled out and that the second holding element and the fourth or third holding elements (26, 24) are designed to operate identically such that holding of the second holding element both on the first holding element and on the third or fourth holding elements (24, 26) is enabled.
A method for managing radio states in a mobile communication device, the method comprising: monitoring a mobility state of the mobile communication device; when the mobility state transitions to a mobility state which is at or above a predetermined threshold, enabling a first short range radio on the mobile communication device; establishing a connection with a compatible first short range radio-enabled device using the first short range radio; and when the first short range radio connection is disconnected, disabling the first short range radio after a first predetermined period of time during which both the mobility state is below the predetermined threshold and the first short range radio connection is not reestablished; characterized in that when the mobility state transitions to a mobility state which is at or above the predetermined threshold, enabling a second short range radio on the mobile communication device; searching for available second short range radio connections; and disabling a second short range radio on the mobile communication device after the mobility state transitions to a mobility state at or above the predetermined threshold if no second short range radio connection is present. monitoring a mobility state of the mobile communication device; when the mobility state transitions to a mobility state which is at or above a predetermined threshold, enabling a first short range radio on the mobile communication device; establishing a connection with a compatible first short range radio-enabled device using the first short range radio; and when the first short range radio connection is disconnected, disabling the first short range radio after a first predetermined period of time during which both the mobility state is below the predetermined threshold and the first short range radio connection is not reestablished; when the mobility state transitions to a mobility state which is at or above the predetermined threshold, enabling a second short range radio on the mobile communication device; searching for available second short range radio connections; and disabling a second short range radio on the mobile communication device after the mobility state transitions to a mobility state at or above the predetermined threshold if no second short range radio connection is present.
An axial thread rolling head, comprising a head part, in which at least three thread rolls are rotatably mounted, wherein the thread rolls amongst themselves border an insertion section for a workpiece, and wherein the thread rolls each have a profile for forming an outer thread on the workpiece, wherein the thread rolls are held non-adjustably in the radial direction in the head part, characterized in that the profile of the thread rolls respectively forms a pointed profile with straight flanks (46, 48) and is respectively designed asymmetrically such that the thread rolls with their asymmetrical profile form a symmetrical external thread on the workpiece, wherein a leading flank angle (α 1) of the profile of the thread rolls lies respectively in an area between 28.0° and 30.0° and in that a trailing flank angle (α 2) of the profile of the thread rolls lies respectively in an area between 30.0° and 32.0°.
A magnetic tracking sensor for determining the location of a remote object, comprising: - an induction coil, characterised in that it further comprises - a magnetic core asymmetrically disposed within the induction coil, the magnetic core comprising one or several soft magnetic wires mounted diagonally inside the induction coil for canceling the axial symmetry of the induction coil; and - a DC electrical circuit operably connected to the induction coil, the DC electrical circuit being configured to provide a DC current to the induction coil, the DC current determining a level of saturation of the magnetic core; wherein, the level of saturation of the magnetic core causes an influence of the magnetic core on a response signal of the induction coil when disposed in an external AC magnetic field produced by a field generator to be adjusted, so that magnetic tracking of a position and orientation of the induction coil can be provided. - an induction coil, characterised in that it further comprises - a magnetic core asymmetrically disposed within the induction coil, the magnetic core comprising one or several soft magnetic wires mounted diagonally inside the induction coil for canceling the axial symmetry of the induction coil; and - a DC electrical circuit operably connected to the induction coil, the DC electrical circuit being configured to provide a DC current to the induction coil, the DC current determining a level of saturation of the magnetic core;
A method of manufacturing an electrical device that is electrically and mechanically connectable to another electrical device, the electrical device having a face equipped with contact pads, the method including: - a layer-application step in which an organic layer is applied on the face equipped with contact pads, the organic layer being composed of a substance with adhesive properties; - an opening-creation step in which a plurality of openings are created through the organic layer over each contact pad; - a growth step in which metal sticks are electrolessly or electrochemically grown in the openings so as to form a plurality of conductive paths over each contact pad, characterized in that the height of each stick is greater than thickness of the organic layer. - a layer-application step in which an organic layer is applied on the face equipped with contact pads, the organic layer being composed of a substance with adhesive properties; - an opening-creation step in which a plurality of openings are created through the organic layer over each contact pad; - a growth step in which metal sticks are electrolessly or electrochemically grown in the openings so as to form a plurality of conductive paths over each contact pad, characterized in that the height of each stick is greater than thickness of the organic layer.
A method of converting solid carbon based material comprising the steps of: providing a rotatable chamber in which the material can be heated; introducing the material into the chamber; indirectly heating the chamber; rotating the heated chamber with the material in the heated chamber to reduce the material, wherein the heated chamber is under vacuum; collecting low temperature gases or oil or both from the reduced material from the chamber; and collecting residual solids from the reduced material from the chamber; wherein the chamber is heated to a temperature between 260 °C (500°F) and 537.7 °C (1000°F), wherein the material is a solid whole tire introduced into the chamber without shredding or cutting into smaller parts. providing a rotatable chamber in which the material can be heated; introducing the material into the chamber; indirectly heating the chamber; rotating the heated chamber with the material in the heated chamber to reduce the material, wherein the heated chamber is under vacuum; collecting low temperature gases or oil or both from the reduced material from the chamber; and collecting residual solids from the reduced material from the chamber;
A medical device handle, comprising: an elongated handle housing having a radially-extending transverse ridge disposed about its circumference; a rotatable collar disposed about a proximal portion of the handle housing, a distal end of the collar abutting a proximally-facing surface of the ridge, wherein the collar includes a plurality of recessed slots in an outer surface thereof; a rotatable control knob disposed at a proximal end of the handle housing; and a slidable door disposed about a distal portion of the collar, said medical device handle being characterized in that the door includes a plurality of alignment protrusions extending radially inward from an inner surface thereof; the door is adapted to be rotatably locked to the collar, and the plurality of alignment protrusions engage the plurality of recessed slots and prevent relative rotation between the collar and the door. an elongated handle housing having a radially-extending transverse ridge disposed about its circumference; a rotatable collar disposed about a proximal portion of the handle housing, a distal end of the collar abutting a proximally-facing surface of the ridge, wherein the collar includes a plurality of recessed slots in an outer surface thereof; a rotatable control knob disposed at a proximal end of the handle housing; and a slidable door disposed about a distal portion of the collar,
A jacket comprising an inner skin and an outer skin which enclose between them a lining region, and comprising an active storage element which contains a storage medium based on a change to its aggregate state, characterised in that the active storage element is arranged to receive, store and give off heat in the lining region, at least part of the lining region is made in the form of an air channel in which air can circulate along the lining region, the storage element is fluidically connected to the air channel so that air can circulate between the air channel and the storage element, there is disposed in the shoulder region of the jacket, on the side of the lining region facing the outer skin, a heat reflector reflecting heat to the inner skin, and in the armpit region of the jacket and/or in the central lumbar region of the jacket the inner skin is made in the form of an active conveyance element in order to convey moisture out of the inside of the jacket into the lining region, the storage element, air channel, heat reflector components and the inner skin in the form of an active conveyance element interacting synergetically for the purpose of active climate control.
Plant complex for producing steel comprising a blast furnace for producing pig iron, a converter steel works for producing crude steel, a gas-conducting system for gases that occur in the production of pig iron and/or the production of crude steel, and a power-generating plant for producing electricity, the power-generating plant being designed as a gas-turbine power-generating plant or gas-turbine and steam-turbine power-generating plant and being operated with a gas that comprises at least a partial amount of the blast-furnace top gas that occurs in the production of pig iron in the blast furnace and/or a partial amount of the converter gas that occurs in the converter steel works, characterized in that a chemical plant and a biotechnological plant are connected to the gas-conducting system, the power-generating plant, the chemical plant and the biotechnological plant being arranged in a parallel setup with respect to the gas supply, and in that the gas-conducting system comprises an operationally controllable gas-distributing device for dividing the streams of gas that are fed to the power-generating plant, the chemical plant and the biotechnological plant. a blast furnace for producing pig iron, a converter steel works for producing crude steel,
A method by a network element in a radio system, the method comprising: sending a radio system specific control message to at least one terminal device, wherein the control message causes the at least one terminal device to perform a voice call quality test; and obtaining the voice call quality test results; characterized in that the method further comprises: prior to the sending of the radio system specific control message, determining, that the at least one terminal device is capable of performing a voice call quality test, by receiving capability information from the at least one terminal device or another network element. sending a radio system specific control message to at least one terminal device, wherein the control message causes the at least one terminal device to perform a voice call quality test; and obtaining the voice call quality test results; characterized in that the method further comprises: prior to the sending of the radio system specific control message, determining, that the at least one terminal device is capable of performing a voice call quality test, by receiving capability information from the at least one terminal device or another network element.
A slotless synchronous permanent magnet, PM, motor (1; 1') comprising: a rotor, and a stator configured to electromagnetically interact with the rotor, wherein the rotor is provided with a first conductive metal layer configured to create harmonic rotor saliency, wherein in cross-section of the rotor the first metal layer is provided peripherally on the rotor, forming an arc of a first circle sector, the rotor being further provided with a second conductive metal layer configured to create harmonic rotor saliency, wherein in cross-section of the rotor the second metal layer is provided peripherally on the rotor, forming an arc of a second circle sector, the centre of the arc of the second circle sector being at an angle (α) with respect to the centre of the arc of the first circle sector, and wherein the first conductive metal layer and the second conductive metal layer are electrically connected to each other at each end portion or end of the rotor in an axial direction, hereby an inductance of an electrical phase decreases as the first metal layer and second metal layer aligns with energised winding portions of that electrical phase, resulting in a harmonic rotor saliency enabling rotor position detection without using an angle encoder. a rotor, and a stator configured to electromagnetically interact with the rotor, wherein the rotor is provided with a first conductive metal layer configured to create harmonic rotor saliency, wherein in cross-section of the rotor the first metal layer is provided peripherally on the rotor, forming an arc of a first circle sector, the rotor being further provided with a second conductive metal layer configured to create harmonic rotor saliency, wherein in cross-section of the rotor the second metal layer is provided peripherally on the rotor, forming an arc of a second circle sector, the centre of the arc of the second circle sector being at an angle (α) with respect to the centre of the arc of the first circle sector, and wherein the first conductive metal layer and the second conductive metal layer are electrically connected to each other at each end portion or end of the rotor in an axial direction, hereby an inductance of an electrical phase decreases as the first metal layer and second metal layer aligns with energised winding portions of that electrical phase, resulting in a harmonic rotor saliency enabling rotor position detection without using an angle encoder.
A dry powder of biocompatible polymeric nanoparticles that will form a shape-retentive aggregate upon exposure to a physiological medium or other medium of higher ionic strength, obtainable by a process comprising: a) polymerizing an effective amount of: a monomer or two or more monomers selected from the group consisting of: a 2-alkenoic acid, a hydroxy (2C - 4C) alkyl 2-alkenoate, a dihydroxy (2C-4C) alkyl 2-alkenoate, a hydroxy (2C - 4C) alkoxy (2C - 4C) alkyl 2-alkenoate, a (1C - 4C) alkoxy (2C - 4C) alkoxy (2C - 4C) alkyl 2-alkenoate or a vicinyl epoxy (1C - 4C) alkyl 2-alkenoate, in a polar liquid or a mixture of two or more miscible liquids, at least one of which is polar, and an effective amount of surfactant to produce a suspension of a plurality of polymeric nanoparticles wherein the polymeric nanoparticles have an average diameter of less than 1 x 10 -6 m ±15%; and b) removing the liquid(s) from the suspension by a process comprising spray-drying or lyophilization to prevent aggregation and such that the amount of liquid(s) remaining in the dry powder is less than 10% ±15% by weight wherein the percentage is based on the total weight of the dry powder. a) polymerizing an effective amount of: a monomer or two or more monomers selected from the group consisting of: a 2-alkenoic acid, a hydroxy (2C - 4C) alkyl 2-alkenoate, a dihydroxy (2C-4C) alkyl 2-alkenoate, a hydroxy (2C - 4C) alkoxy (2C - 4C) alkyl 2-alkenoate, a (1C - 4C) alkoxy (2C - 4C) alkoxy (2C - 4C) alkyl 2-alkenoate or a vicinyl epoxy (1C - 4C) alkyl 2-alkenoate, in a polar liquid or a mixture of two or more miscible liquids, at least one of which is polar, and an effective amount of surfactant to produce a suspension of a plurality of polymeric nanoparticles wherein the polymeric nanoparticles have an average diameter of less than 1 x 10 -6 m ±15%; and a monomer or two or more monomers selected from the group consisting of: a 2-alkenoic acid, a hydroxy (2C - 4C) alkyl 2-alkenoate, a dihydroxy (2C-4C) alkyl 2-alkenoate, a hydroxy (2C - 4C) alkoxy (2C - 4C) alkyl 2-alkenoate, a (1C - 4C) alkoxy (2C - 4C) alkoxy (2C - 4C) alkyl 2-alkenoate or a vicinyl epoxy (1C - 4C) alkyl 2-alkenoate, in a polar liquid or a mixture of two or more miscible liquids, at least one of which is polar, and an effective amount of surfactant to produce a suspension of a plurality of polymeric nanoparticles wherein the polymeric nanoparticles have an average diameter of less than 1 x 10 -6 m ±15%; and b) removing the liquid(s) from the suspension by a process comprising spray-drying or lyophilization to prevent aggregation and such that the amount of liquid(s) remaining in the dry powder is less than 10% ±15% by weight wherein the percentage is based on the total weight of the dry powder.