mhurhangee/ep-ind-claims huggingface dataset:
A non-pneumatic tire comprising: an attachment body attached to an axle; a ring member including an inner rim fitted onto the attachment body and an outer rim configured to surround the inner rim from the outside in a tire radial direction; and a plurality of connecting members disposed between the inner rim and the outer rim in a tire circumferential direction and configured to connect the rims (12, 13) to each other, the plurality of connecting members extending in the tire radial direction when seen in a side view of the non-pneumatic tire, wherein that the inner rim and the outer rim are connected to each other by only the plurality of connecting members, characterized in that the ring member and the plurality of connecting members are integrally formed of a synthetic resin material having a bending modulus of elasticity obtained through a 3-point bending test pursuant to International Standard ISO 178 of 300 MPa or more and 12000 MPa or less, and a breaking strain obtained through a tension test pursuant to International Standard ISO 527-1 and 2 of 3% or more and 400% or less. an attachment body attached to an axle; a ring member including an inner rim fitted onto the attachment body and an outer rim configured to surround the inner rim from the outside in a tire radial direction; and a plurality of connecting members disposed between the inner rim and the outer rim in a tire circumferential direction and configured to connect the rims (12, 13) to each other, the plurality of connecting members extending in the tire radial direction when seen in a side view of the non-pneumatic tire, wherein that the inner rim and the outer rim are connected to each other by only the plurality of connecting members, characterized in that the ring member and the plurality of connecting members are integrally formed of a synthetic resin material having a bending modulus of elasticity obtained through a 3-point bending test pursuant to International Standard ISO 178 of 300 MPa or more and 12000 MPa or less, and a breaking strain obtained through a tension test pursuant to International Standard ISO 527-1 and 2 of 3% or more and 400% or less.
A light sensing device having background suppression, comprising - a light transmitter; - a light receiver; - an evaluation unit for determining the spacing between the light sensing device and an object in a detection zone of the light sensing device; - a setting element for setting a sensing depth within which an object should be detected, wherein a critical spacing region is defined between a set sensing depth and a background in dependence on the set sensing depth; - a signal output for outputting a signal when an object is detected within the set sensing depth; - a display unit for displaying whether an object is present within the sensing depth; wherein the display unit has at least two display regions (40, 42), wherein the first display region is configured such that the set sensing depth can be displayed in relation to a maximum sensing depth of the light sensing device and the second display region indicates if an object is present in the critical spacing region, characterized in that the distance of an object located within the set sensing depth can be indicated qualitatively in the first display region. - a light transmitter; - a light receiver; - an evaluation unit for determining the spacing between the light sensing device and an object in a detection zone of the light sensing device; - a setting element for setting a sensing depth within which an object should be detected, wherein a critical spacing region is defined between a set sensing depth and a background in dependence on the set sensing depth; - a signal output for outputting a signal when an object is detected within the set sensing depth; - a display unit for displaying whether an object is present within the sensing depth;
On-board motor vehicle electrical system comprising a first voltage supply system and comprising a second voltage supply system, - wherein the first voltage supply system has a first voltage source with a relatively low voltage, and the second voltage supply system has a second voltage source with a relatively high voltage, - wherein the first voltage supply system and the second voltage supply system are DC-isolated from one another and connected to one another in a signal-transmitting manner by at least one coupling element, - wherein the second voltage supply system has at least one electrical switching element, which is electrically connected to the respective coupling element, for a load, and - wherein the on-board motor vehicle electrical system has a current measuring arrangement for measuring a current flowing to the load, characterized in that the current measuring arrangement comprises at least one Hall sensor which is electrically connected to the first voltage source. - wherein the first voltage supply system has a first voltage source with a relatively low voltage, and the second voltage supply system has a second voltage source with a relatively high voltage, - wherein the first voltage supply system and the second voltage supply system are DC-isolated from one another and connected to one another in a signal-transmitting manner by at least one coupling element, - wherein the second voltage supply system has at least one electrical switching element, which is electrically connected to the respective coupling element, for a load, and - wherein the on-board motor vehicle electrical system has a current measuring arrangement for measuring a current flowing to the load,
An apparatus suitable for spin casting lenses, comprising: a rotatable tube having a first end and a second end connected by a surface that defines an interior longitudinal cavity configured to receive at least one contact lens mold (100, 200); and an actinic radiation source disposed adjacent to the rotatable tube; characterized in that the rotatable tube includes at least one portion defining at least one aperture, wherein the at least one aperture extends through the surface of the rotatable tube to the interior longitudinal cavity, wherein the at least one aperture is configured to permit the transmission of actinic radiation from the actinic radiation source into the interior longitudinal cavity during rotation of the tube, wherein the at least one portion is at least partially made of a material that is opaque to actinic radiation. a rotatable tube having a first end and a second end connected by a surface that defines an interior longitudinal cavity configured to receive at least one contact lens mold (100, 200); and an actinic radiation source disposed adjacent to the rotatable tube; characterized in that the rotatable tube includes at least one portion defining at least one aperture, wherein the at least one aperture extends through the surface of the rotatable tube to the interior longitudinal cavity, wherein the at least one aperture is configured to permit the transmission of actinic radiation from the actinic radiation source into the interior longitudinal cavity during rotation of the tube, wherein the at least one portion is at least partially made of a material that is opaque to actinic radiation.
An implant for use in stimulating osteoclast formation and promoting bone formation comprising: an implantable material, wherein the material is, optionally, selected from mineralized bone, hydroxyapatite, or a calcium phosphate material, and further comprises mesenchymal stem cells; and a stimulating substance, wherein the stimulating substance stimulates osteoclast formation, and wherein the stimulating substance comprises osteoclast precursor cells. an implantable material, wherein the material is, optionally, selected from mineralized bone, hydroxyapatite, or a calcium phosphate material, and further comprises mesenchymal stem cells; and a stimulating substance, wherein the stimulating substance stimulates osteoclast formation, and wherein the stimulating substance comprises osteoclast precursor cells.
Dipivefrin or a pharmaceutically acceptable salt thereof for use in a method of systemic delivery of a therapeutically effective amount of epinephrine to a subject, where in said method said Dipivefrin or a pharmaceutically acceptable salt thereof is administered orally.
A compound that is an inhibitor of PGE 2 biosynthesis for use in a method of enhancing the mobilization of hematopoietic stem and progenitor cells prior to cell harvesting for hematopoietic stem and progenitor cell therapy wherein the method comprises the steps of: identifying a donor of hematopoietic stem and/or progenitor cells; administering an effective amount of the compound that is an inhibitor of PGE 2 biosynthesis to said donor prior to cell harvesting. identifying a donor of hematopoietic stem and/or progenitor cells; administering an effective amount of the compound that is an inhibitor of PGE 2 biosynthesis to said donor prior to cell harvesting.
A welding wire feeder, comprising: a welding drive assembly housing; a first drive wheel configured to rotate with respect to the welding drive assembly housing; a second drive wheel configured to rotate with respect to the welding drive assembly housing, wherein the first and second drive wheel (50, 48) are disposed opposite from one another about a welding wire feed region; a clamp arm configured to pivot at a first end of the clamp arm about a clamp arm joint of the welding drive assembly housing, wherein the clamp arm is configured to transfer a compressive force from the first drive wheel to welding wire fed through the welding wire feed region; and a tensioner configured to pivot about a tensioner joint of the welding drive assembly housing, wherein the clamp arm comprises a tensioner groove configured to receive the tensioner, and wherein the tensioner comprises an adjustment knob configured to adjust the compressive force transferred from the clamp arm when the tensioner is disposed within the tensioner groove, characterized in that the clamp arm comprises an alignment tongue extending from a second end of the clamp arm that is opposite the first end, and wherein the welding drive assembly housing comprises an alignment groove configured to receive the alignment tongue of the clamp arm, wherein the alignment tongue and the alignment groove limit lateral movement of the clamp arm relative to pivoting motion of the clamp arm when the alignment tongue is disposed within the alignment groove, and in that the tensioner is configured to pivot about the tensioner joint in a plane perpendicular to the direction of welding wire feeding through the welding wire feed region. a welding drive assembly housing; a first drive wheel configured to rotate with respect to the welding drive assembly housing; a second drive wheel configured to rotate with respect to the welding drive assembly housing, wherein the first and second drive wheel (50, 48) are disposed opposite from one another about a welding wire feed region; a clamp arm configured to pivot at a first end of the clamp arm about a clamp arm joint of the welding drive assembly housing, wherein the clamp arm is configured to transfer a compressive force from the first drive wheel to welding wire fed through the welding wire feed region; and a tensioner configured to pivot about a tensioner joint of the welding drive assembly housing, wherein the clamp arm comprises a tensioner groove configured to receive the tensioner, and wherein the tensioner comprises an adjustment knob configured to adjust the compressive force transferred from the clamp arm when the tensioner is disposed within the tensioner groove,
An evaporator for a sorption machine, comprising a heat exchanger provided with at least one tube, channel and/or combination of both passed through by a fluid, to which a refrigerant is at least partially applied, wherein the evaporator is filled with a, in particular, porous material through which vapour can pass through and is at least partially in contact with the tube, the channel and/or the combination, characterised in that a plurality of tubes or channels is arranged in the heat exchanger essentially in parallel causing gaps to be formed between them, wherein the porous material is at least partially present on the tubes and in the gaps.
A method for producing a carotenoid, which comprises culturing a carotenoid-producing bacterium belonging to the genus Paracoccus in a medium containing a carbon source, a nitrogen source and inorganic salts and supplemented with glutamic acid or a glutamate salt, and collecting the carotenoid from the resulting cultured product.
An apparatus being a mobile phone or computer comprising A magnetic sensor adapted to sense and store the magnetic field strength and/or its pattern caused by a device coming into proximity of said magnetic sensor; a processing module adapted to evaluate the sensed magnetic field strength or pattern based on known field strengths or patterns in order to obtain an estimate of one or more of the following: the type of said device; the orientation of said device with respect to said mobile phone or computer, wherein said processing module is adapted to compare said sensed magnetic field strength and/or its pattern with previously stored magnetic field strengths and/or its patterns of said device. the type of said device; the orientation of said device with respect to said mobile phone or computer, wherein said processing module is adapted to compare said sensed magnetic field strength and/or its pattern with previously stored magnetic field strengths and/or its patterns of said device.
A method, comprising: determining, by a first component (113, 213, 313) of a memory sub-system controller (115, 215, 315), a first temperature value of the memory subsystem controller; determining, by a second component (131, 231) of a non-volatile memory device (130, 230), a second temperature value of the non-volatile memory device coupled to the memory sub-system controller; performing, by the memory sub-system controller, a full save operation in response to: the first temperature value being below a first threshold temperature value; or the second temperature value being below a second threshold temperature value, wherein performing the full save operation comprises saving a full set of data; performing, by the memory sub-system controller, a partial save operation in response to the first temperature value exceeding the first threshold temperature value or the second temperature value exceeding the second threshold temperature value, wherein performing the partial save operation comprises saving a portion of the full set of data and not saving other portions of the full set of data; and modifying a data parameter in response to: the first temperature value exceeding the first threshold temperature value; or the second temperature value exceeding the second threshold temperature value; or both. determining, by a first component (113, 213, 313) of a memory sub-system controller (115, 215, 315), a first temperature value of the memory subsystem controller; determining, by a second component (131, 231) of a non-volatile memory device (130, 230), a second temperature value of the non-volatile memory device coupled to the memory sub-system controller; performing, by the memory sub-system controller, a full save operation in response to: the first temperature value being below a first threshold temperature value; or the second temperature value being below a second threshold temperature value, wherein performing the full save operation comprises saving a full set of data; the first temperature value being below a first threshold temperature value; or the second temperature value being below a second threshold temperature value, wherein performing the full save operation comprises saving a full set of data; performing, by the memory sub-system controller, a partial save operation in response to the first temperature value exceeding the first threshold temperature value or the second temperature value exceeding the second threshold temperature value, wherein performing the partial save operation comprises saving a portion of the full set of data and not saving other portions of the full set of data; and modifying a data parameter in response to: the first temperature value exceeding the first threshold temperature value; or the second temperature value exceeding the second threshold temperature value; or both. the first temperature value exceeding the first threshold temperature value; or the second temperature value exceeding the second threshold temperature value; or both.
A protective circuit comprising: an AC line configured to provide power from an AC source; a first protection circuit coupled to the AC line and implemented to be electrically parallel with a load circuit, the first protection circuit configured to be in an inactive state to be substantially non-conducting when a voltage across the load circuit is in a normal range or an active state to be substantially conducting when the voltage across the load circuit has an overvoltage value greater than the normal range to shunt power away from the load circuit; and a second protection circuit implemented to be electrically between the AC source and the load circuit, the second protection circuit configured to block power from the AC source in response to a condition resulting from the first protection circuit being in the active state, the protective circuit is characterised in that the first protection circuit is implemented as an electrically series combination of a gas discharge tube, GDT, and a metal-oxide varistor, MOV, and the second protection circuit is implemented as an arc fault circuit interrupter, AFCI, provided along the AC line and configured to block the power from the AC source upon sensing of the condition resulting from the first protection circuit being in the active state, and in that the condition resulting from the first protection circuit being in the active state includes a high frequency component in a let-through signal. an AC line configured to provide power from an AC source; a first protection circuit coupled to the AC line and implemented to be electrically parallel with a load circuit, the first protection circuit configured to be in an inactive state to be substantially non-conducting when a voltage across the load circuit is in a normal range or an active state to be substantially conducting when the voltage across the load circuit has an overvoltage value greater than the normal range to shunt power away from the load circuit; and a second protection circuit implemented to be electrically between the AC source and the load circuit, the second protection circuit configured to block power from the AC source in response to a condition resulting from the first protection circuit being in the active state, the protective circuit is characterised in that the first protection circuit is implemented as an electrically series combination of a gas discharge tube, GDT, and a metal-oxide varistor, MOV, and the second protection circuit is implemented as an arc fault circuit interrupter, AFCI, provided along the AC line and configured to block the power from the AC source upon sensing of the condition resulting from the first protection circuit being in the active state, and in that the condition resulting from the first protection circuit being in the active state includes a high frequency component in a let-through signal.
Method for automatically inserting wire in the form of at least one coil into a coil space of a stator, wherein the insertion of the coil wire is realized in an automated manner with the aid of a rotating winding arm, wherein the coil space comprises a number of coil grooves which are delimited by pole tips and a stator wall of the stator, wherein provision is made of insulation paper in order to protect the at least one coil from abrasion, characterized by the following steps: - inserting the insulation paper into the coil space in such a way that the insulation paper projects beyond the respective pole tip from the respective coil groove in a direction perpendicular to the longitudinal axis of the stator, - inserting the coil wire into the coil space, - fixing individual windings of the coil wire to one another by means of a fixing means, wherein the coil wire has as a fixing means a baking enamel coating by means of which individual wire windings are baked to form a coil, and - fixing to the coil that part of the insulation paper which overhangs perpendicular to the longitudinal axis of the stator, wherein that part of the insulation paper which overhangs perpendicular to the longitudinal axis of the stator is baked on the coil. - inserting the insulation paper into the coil space in such a way that the insulation paper projects beyond the respective pole tip from the respective coil groove in a direction perpendicular to the longitudinal axis of the stator, - inserting the coil wire into the coil space, - fixing individual windings of the coil wire to one another by means of a fixing means, wherein the coil wire has as a fixing means a baking enamel coating by means of which individual wire windings are baked to form a coil, and - fixing to the coil that part of the insulation paper which overhangs perpendicular to the longitudinal axis of the stator, wherein that part of the insulation paper which overhangs perpendicular to the longitudinal axis of the stator is baked on the coil.
A system comprising: a first bus bar; a foil element spaced apart from the first bus bar, wherein the foil element is electrically connected to the first bus bar by grid elements; and a second bus bar spaced apart from the foil element and from the first bus bar across a dielectric layer; wherein the grid elements pass through a first dielectric sub-layer that otherwise separates the first bus bar from the foil element; and wherein the foil element is a first foil element, wherein the grid elements are a first set of grid elements, and further comprising a second foil element spaced apart from the second bus bar, wherein the second foil element is electrically connected to the second bus bar by a second set of grid elements. a first bus bar; a foil element spaced apart from the first bus bar, wherein the foil element is electrically connected to the first bus bar by grid elements; and a second bus bar spaced apart from the foil element and from the first bus bar across a dielectric layer; wherein the grid elements pass through a first dielectric sub-layer that otherwise separates the first bus bar from the foil element; and
A high electron mobility transistor, HEMT, comprising: a bottom layer made of Group III nitride semiconductor material; a middle layer made of AIN semiconductor material on said bottom layer, wherein said middle layer is less than 5 nm (50 Å) thick; a top layer made of Group III nitride semiconductor material comprising one or more Group III elements on said middle layer, opposite said bottom layer, said middle layer having a higher concentration of aluminium than said bottom and top layers; and a 2DEG between said middle and bottom layers. a bottom layer made of Group III nitride semiconductor material; a middle layer made of AIN semiconductor material on said bottom layer, wherein said middle layer is less than 5 nm (50 Å) thick; a top layer made of Group III nitride semiconductor material comprising one or more Group III elements on said middle layer, opposite said bottom layer, said middle layer having a higher concentration of aluminium than said bottom and top layers; and a 2DEG between said middle and bottom layers.