mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for sterilising containers, with a transport device which transports the containers to be sterilised along a predefined transport path, with at least one sterilisation device (4, 6a, 6b) which acts upon the containers with charge carriers for their sterilisation during their transport, wherein this sterilisation device (4, 6a, 6b) has a generating device for generating charge carriers, and with a screening device for screening radiation occurring, which surrounds the transport path of the containers at least in portions, wherein the screening device has a first wall which is arranged at the side next to the transport path of the containers and a second wall which is arranged below the transport path of the containers, wherein the second wall is movable in relation to the transport path of the containers and also in relation to the first wall by means of a drive device and wherein the movement of the second wall access to at least one sterilisation device (4, 6a, 6b) for operator intervention is made possible.
An apparatus comprising: an extrusion nozzle including an inlet end; an outlet end opposite the inlet end; an axis extending between the inlet end and the outlet end, wherein the extrusion nozzle is configured to rotate about the axis; a rotary drive engagement portion between the inlet end and the outlet end; at least one heating element thermally coupled with the extrusion nozzle; and a cavity including an inlet opening at the inlet end and an outlet opening at the outlet end, wherein the inlet opening has a different configuration than the outlet opening, the cavity has a path that is non-linear, and a length of the cavity is greater than a length of the extrusion nozzle. an extrusion nozzle including an inlet end; an outlet end opposite the inlet end; an axis extending between the inlet end and the outlet end, wherein the extrusion nozzle is configured to rotate about the axis; a rotary drive engagement portion between the inlet end and the outlet end; at least one heating element thermally coupled with the extrusion nozzle; and a cavity including an inlet opening at the inlet end and an outlet opening at the outlet end, wherein the inlet opening has a different configuration than the outlet opening, the cavity has a path that is non-linear, and a length of the cavity is greater than a length of the extrusion nozzle.
Stabilizer link rod for a vehicle suspension, comprising a metal tube including at its ends attachment elements for housing articulations, each attachment element comprising a metal ring welded directly on one of the ends of said metal tube, characterized in that it also comprises a polymer casing covering said metal ring, the end of said metal tube and the welding between the metal tube and the metal ring.
Belt for a treadmill for training the human body comprising a carrier belt and a tread layer situated on the carrier belt, which has multiple chambers, which are filled with a filler material, characterized in that the chambers form separate pockets (3, 3'), which are situated separately from one another on the carrier belt, wherein the pockets (3, 3') are configured as loops having two opposite open sides or are implemented as closed or closable on all sides, and the filler material comprises a foamed polyurethane which is compressible between 40% and 95% with an area of 10 cm x 10 cm and a surface load of 1000 N.
A motor control model conversion method for converting a first calculation model into a second calculation model, wherein: the first calculation model is configured to output one or more manipulated variables used for control of the motor by receiving an input of one or more controlled variables or target values each indicating a state of the motor, and performing calculation configured to use one or more transfer functions or state equations; the second calculation model is configured to output the one or more manipulated variables by receiving an input of the one or more controlled variables or target values, and performing calculation in each of the one or more node layers each including a plurality of nodes configured to execute calculations in parallel; and in a step of converting the first calculation model into the second calculation model, a coefficient multiplied by an input value input to the nodes, and a function designating a multiplied value as an input variable are determined based on the one or more transfer functions or state equations for each of the plurality of nodes, wherein, in the step of converting the first calculation model into the second calculation model, a number of the plurality of nodes, and the coefficient of each of the plurality of nodes are determined based on a number of previous states of the one or more transfer functions or state equations of the first calculation model, and a connection relationship between the input and the output. the first calculation model is configured to output one or more manipulated variables used for control of the motor by receiving an input of one or more controlled variables or target values each indicating a state of the motor, and performing calculation configured to use one or more transfer functions or state equations; the second calculation model is configured to output the one or more manipulated variables by receiving an input of the one or more controlled variables or target values, and performing calculation in each of the one or more node layers each including a plurality of nodes configured to execute calculations in parallel; and in a step of converting the first calculation model into the second calculation model, a coefficient multiplied by an input value input to the nodes, and a function designating a multiplied value as an input variable are determined based on the one or more transfer functions or state equations for each of the plurality of nodes,
A method for an assessment of mineral density related to a patient's first bone, wherein said first bone is associated with a femoral head, a femoral neck and/or a lumbar spine, the method comprising: - determining with a pulse echo method a first parameter, which is related to a property change in an ultrasonic measurement signal launched towards a cortical bone of a tubular bone of said patient after the measurement signal has been in interaction with the cortical bone of said tubular bone, wherein said cortical bone of the tubular bone is some second bone other than said first bone, wherein the first parameter is a cortical bone thickness of the second bone and is determined based on a time gap between signals reflected from first and second edges of the cortical bone of the tubular bone in the direction of the ultrasonic measurement signal, - determining a set of second parameters, wherein said set of second parameters consists of age and weight of said patient and - determining an estimate for mineral density related to said patient's first bone by using said first and second parameters by combining only said thickness of the cortical bone of the tubular bone age and weight of said patient by an equation determined by a regression technique. - determining with a pulse echo method a first parameter, which is related to a property change in an ultrasonic measurement signal launched towards a cortical bone of a tubular bone of said patient after the measurement signal has been in interaction with the cortical bone of said tubular bone, wherein said cortical bone of the tubular bone is some second bone other than said first bone, wherein the first parameter is a cortical bone thickness of the second bone and is determined based on a time gap between signals reflected from first and second edges of the cortical bone of the tubular bone in the direction of the ultrasonic measurement signal, - determining a set of second parameters, wherein said set of second parameters consists of age and weight of said patient and - determining an estimate for mineral density related to said patient's first bone by using said first and second parameters by combining only said thickness of the cortical bone of the tubular bone age and weight of said patient by an equation determined by a regression technique.
A method of producing a decorative radome, comprising: - providing a radio-transmissive substrate (21, 121, 221, 321) having a first surface (22, 122, 222, 322) and a second surface (23, 123, 223, 323); - applying, to at least a portion of the second surface (23, 123, 223, 323) of the radio-transmissive substrate (21, 121, 221, 321), a decorative layer (24, 124, 224, 324) comprising a layer of a metal or an alloy comprising a metal and a metalloid; and - overmolding at least the decorative layer (24, 124, 224, 324) with a radio-transmissive polymer to provide an overmolded layer (26, 126, 226, 326), characterised in that the radio-transmissive substrate (21, 121, 221, 321) and the decorative layer (24, 124, 224, 324) are heated prior to overmolding, to at least 70, 75 or 80 degrees Celsius, and wherein the overmolding is performed with a barrel nozzle temperature below 300 or 280 or 250 degrees Celsius. - providing a radio-transmissive substrate (21, 121, 221, 321) having a first surface (22, 122, 222, 322) and a second surface (23, 123, 223, 323); - applying, to at least a portion of the second surface (23, 123, 223, 323) of the radio-transmissive substrate (21, 121, 221, 321), a decorative layer (24, 124, 224, 324) comprising a layer of a metal or an alloy comprising a metal and a metalloid; and - overmolding at least the decorative layer (24, 124, 224, 324) with a radio-transmissive polymer to provide an overmolded layer (26, 126, 226, 326), the radio-transmissive substrate (21, 121, 221, 321) and the decorative layer (24, 124, 224, 324) are heated prior to overmolding, to at least 70, 75 or 80 degrees Celsius, and wherein the overmolding is performed with a barrel nozzle temperature below 300 or 280 or 250 degrees Celsius.
A steel material for highly deformable line pipes that has superior strain aging resistance and superior HIC resistance, the steel material having a chemical composition comprising, in mass %, C: 0.05 to 0.100%, Si: 0.01 to 0.50%, Mn: 0.5 to 2.5%, P: 0.015% or less, S: 0.002% or less, Cu: 0.25 to 1.00%, Mo: 0.01% or less, Nb: 0.005 to 0.05%, Ti: 0.005 to 0.040%, Al: 0.10% or less, and N: 0.007% or less, optionally one or at least two of Ni: 0.02 to 0.50%, Cr: 1.00% or less, V: 0.10% or less, Ca: 0.0050% or less, and B: 0.0050% or less, with the balance being Fe and inevitable impurities, wherein the steel material has a metallographic structure including ferrite, bainite, and martensite-austenite constituent, wherein the area fraction of the martensite-austenite constituent is 0.5 to 5.0% and wherein the total area fraction of the ferrite, the bainite and the martensite-austenite constituent is 90% or more, wherein the difference in hardness between the ferrite and the bainite is 60 or more in terms of Vickers hardness, and wherein, both before strain aging treatment at a temperature of 300°C or lower and after the strain aging treatment, the steel material has a uniform elongation of 9% or more and a yield ratio of 90% or less, wherein the total area fraction of the ferrite, the bainite and the martensite-austenite constituent, the difference in hardness between the ferrite and the bainite, the uniform elongation and the yield ratio are determined utilizing the methods described in the description.
A sensor system comprising: a tag unit; and a readout unit inductively-coupled to the tag unit, wherein the tag unit includes a first sensor, the first sensor including a stretchable antenna (11, 111, 111a) and a stretchable resistor (12, 12a), wherein the tag unit is configured to create a sensing signal corresponding to a degree of stretching of the stretchable resistor, transmit the sensing signal to the readout unit through the stretchable antenna, and operate in a first region corresponding to a first frequency, the first frequency being in a range from 30 MHz to 50 MHz, and wherein the readout unit includes an antenna and a circuit unit and is configured to supply driving power to the tag unit in a contactless manner through a wireless power signal and receive and read out the sensing signal created by the tag unit, and the readout unit is configured to operate in a second region corresponding to a second frequency, the second frequency being different from the first frequency, the first region is a region corresponding to the first frequency and a first coupling coefficient, the second region is a region corresponding to the second frequency and a second coupling coefficient, and the first coupling coefficient is greater than the second coupling coefficient. a tag unit; and a readout unit inductively-coupled to the tag unit, wherein the tag unit includes a first sensor, the first sensor including a stretchable antenna (11, 111, 111a) and a stretchable resistor (12, 12a), wherein the tag unit is configured to create a sensing signal corresponding to a degree of stretching of the stretchable resistor, transmit the sensing signal to the readout unit through the stretchable antenna, and operate in a first region corresponding to a first frequency, the first frequency being in a range from 30 MHz to 50 MHz, and wherein the readout unit includes an antenna and a circuit unit and is configured to supply driving power to the tag unit in a contactless manner through a wireless power signal and receive and read out the sensing signal created by the tag unit, and the readout unit is configured to operate in a second region corresponding to a second frequency, the second frequency being different from the first frequency, the first region is a region corresponding to the first frequency and a first coupling coefficient, the second region is a region corresponding to the second frequency and a second coupling coefficient, and the first coupling coefficient is greater than the second coupling coefficient.
A method of wireless communication for a user equipment, UE, comprising: receiving, by the UE, an activation/reactivation downlink control information, DCI, from a base station, the activation/reactivation DCI including an update to a periodically-occurring scheduling, wherein an absolute time for the update to take effect is specified in a radio resource control, RRC, configuration of the activation/reactivation DCI; and applying the update to the periodically-occurring scheduling for communications of the UE beginning at and following the absolute time, wherein the periodically-occurring scheduling comprises a semi-persistent scheduling, SPS, or configured grant, CG, parameter, wherein the absolute time is common to a group of UEs including the UE, wherein updates to one or more SPS or CG parameters of the group of UEs take effect simultaneously at the absolute time. receiving, by the UE, an activation/reactivation downlink control information, DCI, from a base station, the activation/reactivation DCI including an update to a periodically-occurring scheduling, wherein an absolute time for the update to take effect is specified in a radio resource control, RRC, configuration of the activation/reactivation DCI; and applying the update to the periodically-occurring scheduling for communications of the UE beginning at and following the absolute time, wherein the periodically-occurring scheduling comprises a semi-persistent scheduling, SPS, or configured grant, CG, parameter, wherein the absolute time is common to a group of UEs including the UE, wherein updates to one or more SPS or CG parameters of the group of UEs take effect simultaneously at the absolute time.
A park lock system for an electric vehicle, comprising: - a first rotational member arranged to be rotationally connected to a rotor shaft of an electric motor of the electric vehicle; - a second rotational member; - a park lock mechanism arranged to substantially prevent, in an engaged setting, a rotation of the second rotational member and allow, in a disengaged setting, a rotation of the second rotational member; and - a resilient member (140, 148, 740) rotationally connecting the first rotational member and the second rotational member, wherein a first of the resilient member (140, 740) and the second rotational member comprises a plurality of axial protrusions and a second of the resilient member (140, 740) and the second rotational member comprises a plurality of axial indentations arranged to receive the axial protrusions. - a first rotational member arranged to be rotationally connected to a rotor shaft of an electric motor of the electric vehicle; - a second rotational member; - a park lock mechanism arranged to substantially prevent, in an engaged setting, a rotation of the second rotational member and allow, in a disengaged setting, a rotation of the second rotational member; and - a resilient member (140, 148, 740) rotationally connecting the first rotational member and the second rotational member,
An electromagnetic valve for a tank valve of a fuel supply system of a gas fuel motor vehicle, comprising a magnetic coil with an inner guide; and a magnetic armature which can move axially in the inner guide, wherein the magnetic armature consists of an armature, a seal element which is arranged between the armature and a fuel inlet, and a counter pole which abuts the seal element; wherein the magnetic coil and the magnetic armature are arranged such that, when activating the magnetic coil, a pilot opening for a high-pressure fuel is opened by means of the armature sliding in the direction of the counter pole and by means of the armature being released from the seal element, so that the high-pressure fuel from the region of the counter pole flows into the gas inlet via the pilot opening; characterized in that a primary opening for the high-pressure fuel is subsequently opened by means of the magnetic armature sliding in the direction of a termination of the magnetic coil and by means of the seal element releasing from the fuel inlet due to a pressure difference created as a result of the flow of the high-pressure fuel from the region of the counter pole.
A paper sheet comprising cellulose fibers and hydrophobic fibers, wherein the cellulose fibers represent 10% to 90% by weight of the dry matter of the paper sheet, the hydrophobic fibers represent 10% to 90% by weight of the dry matter of the paper sheet and the cellulose fibers and the hydrophobic fibers represent at least 50% by weight of the dry matter of the paper sheet, characterized in that the hydrophobic fibers are hydrophobic viscose fibers, the length of the hydrophobic fibers is less than 20 mm. characterized in that the hydrophobic fibers are hydrophobic viscose fibers, the length of the hydrophobic fibers is less than 20 mm.
An injection molded lid for use with a container having an upper opening that is defined by a rim, comprising: a lid body, made of a first material and comprising a cover portion and a flange portion disposed around the periphery of the cover portion for fitting over the rim, wherein the flange portion comprises a first side wall, a second side wall, and a top wall, wherein the first side wall is connected with the periphery of the cover portion, and wherein the top wall, the first side wall and the second side wall define an interior space; and a securing member made of a second material; wherein the injection molded lid is characterized in that: the top wall comprises at least one slit disposed thereon, the second side wall comprises at least one notch disposed thereon and at least one bulge disposed at the inner surface thereof; and the securing member comprises a frame, at least one tab and at least one extension part, wherein the frame is disposed within the interior space and adjoins at least the top wall, the extension part extending from the frame through the slit and resting on the top wall, and wherein the tab extends downwardly from the extension part along the outer surface of the second side wall and covers the notch. a lid body, made of a first material and comprising a cover portion and a flange portion disposed around the periphery of the cover portion for fitting over the rim, wherein the flange portion comprises a first side wall, a second side wall, and a top wall, wherein the first side wall is connected with the periphery of the cover portion, and wherein the top wall, the first side wall and the second side wall define an interior space; and a securing member made of a second material; wherein the injection molded lid is characterized in that: the top wall comprises at least one slit disposed thereon, the second side wall comprises at least one notch disposed thereon and at least one bulge disposed at the inner surface thereof; and the securing member comprises a frame, at least one tab and at least one extension part, wherein the frame is disposed within the interior space and adjoins at least the top wall, the extension part extending from the frame through the slit and resting on the top wall, and wherein the tab extends downwardly from the extension part along the outer surface of the second side wall and covers the notch. the top wall comprises at least one slit disposed thereon, the second side wall comprises at least one notch disposed thereon and at least one bulge disposed at the inner surface thereof; and the securing member comprises a frame, at least one tab and at least one extension part, wherein the frame is disposed within the interior space and adjoins at least the top wall, the extension part extending from the frame through the slit and resting on the top wall, and wherein the tab extends downwardly from the extension part along the outer surface of the second side wall and covers the notch.
A method, comprising: a policy function transmitting to a depository function a request for information; and the policy function receiving a response to the request, characterized in that the response comprises: a usageMonDataLimit instance comprising a limit identifier, wherein the limit identifier identifies a usage monitoring control instance; and a usageMonData instance corresponding to the usageMonDataLimit instance, wherein the usageMonData instance also comprises the limit identifier. a policy function transmitting to a depository function a request for information; and the policy function receiving a response to the request, characterized in that the response comprises: a usageMonDataLimit instance comprising a limit identifier, wherein the limit identifier identifies a usage monitoring control instance; and a usageMonData instance corresponding to the usageMonDataLimit instance, wherein the usageMonData instance also comprises the limit identifier. a usageMonDataLimit instance comprising a limit identifier, wherein the limit identifier identifies a usage monitoring control instance; and a usageMonData instance corresponding to the usageMonDataLimit instance, wherein the usageMonData instance also comprises the limit identifier.