mhurhangee/patent-ind-claim-en huggingface dataset:
An extruded floorboard apparatus comprising: an extruded metal body having a cross section perpendicular to a longitudinal length, the cross section including: a horizontal floor section having a flat top; a stiffening rib extending vertically from a central portion of the horizontal floor section ; a long leg extending perpendicularly downward from a first end of the horizontal floor section , the long leg having a height and terminating in a foot ; a short leg extending perpendicularly downward from a second end of the horizontal floor section , the short leg being shorter than the long leg ; a tongue protruding from one of the legs and forming a tee below the flat top; and a U-shaped groove of uniform wall thickness formed in the other of the legs , characterized in that a portion below the tee or U-shaped groove on the short leg is configured to be cut off while preserving said tongue or groove , in that the tongue and groove are configured such that when a tongue and a groove of adjacent extruded metal bodies are mated with each other, the short leg of one extruded metal body intimately follows but only partially extends downward along a surface of a long leg of an adjacent metal body , such that the mated short and long legs terminate in the foot of the long leg , and in that the long leg extends vertically down at least 7.6 cm (3.0 inches) more than the tongue , the groove , and the stiffening rib . a horizontal floor section having a flat top; a stiffening rib extending vertically from a central portion of the horizontal floor section ; a long leg extending perpendicularly downward from a first end of the horizontal floor section , the long leg having a height and terminating in a foot ; a short leg extending perpendicularly downward from a second end of the horizontal floor section , the short leg being shorter than the long leg ; a tongue protruding from one of the legs and forming a tee below the flat top; and a U-shaped groove of uniform wall thickness formed in the other of the legs , characterized in that a portion below the tee or U-shaped groove on the short leg is configured to be cut off while preserving said tongue or groove , in that the tongue and groove are configured such that when a tongue and a groove of adjacent extruded metal bodies are mated with each other, the short leg of one extruded metal body intimately follows but only partially extends downward along a surface of a long leg of an adjacent metal body , such that the mated short and long legs terminate in the foot of the long leg , and in that the long leg extends vertically down at least 7.6 cm (3.0 inches) more than the tongue , the groove , and the stiffening rib .
A method for producing a molded body from a particle foam material in a closable mold cavity of a molding tool , comprising the steps: (a) introducing the particle foam material in the form of granulate material into the mold cavity of the molding tool , (b) closing the mold cavity , (c) heating the molding tool and the granulate material contained therein, whereby the particles of the granulate material are bonded to one another, wherein during step (c), the introduction of the thermal energy into the interior of the mold cavity takes place exclusively through the wall of the mold cavity , wherein the passage of the heat energy from the wall of the mold cavity into the interior of the mold cavity takes place free of convection, characterized in that the molding tool has a device for heating the molding tool , in the form of one or multiple channels of a temperature control device for a heating medium, and step (c) is carried out by means of the device for heating the molding tool . (a) introducing the particle foam material in the form of granulate material into the mold cavity of the molding tool , (b) closing the mold cavity , (c) heating the molding tool and the granulate material contained therein, whereby the particles of the granulate material are bonded to one another, during step (c), the introduction of the thermal energy into the interior of the mold cavity takes place exclusively through the wall of the mold cavity , wherein the passage of the heat energy from the wall of the mold cavity into the interior of the mold cavity takes place free of convection, characterized in that the molding tool has a device for heating the molding tool , in the form of one or multiple channels of a temperature control device for a heating medium, and step (c) is carried out by means of the device for heating the molding tool .
An ocular device for regulating intraocular fluid pressure comprising or consisting of a tubular body wherein the inner surface of the tubular body is at least partially, preferably completely, coated with covalently immobilized thiol-modified hyaluronic acid (HA) molecules which are linked with further thiol-modified HA molecules to form a HA hydrogel.
A method of calculating proton conductivity (σ) of an electrolyte film, comprising: configuring an electrolyte film to be measured interposed between at least three pairs of electrodes (2a-2h, 5a-5d); measuring the impedance of the electrodes pairs (2a-2h, 5a-5d) while an electrode area is changed by using the electrodes pairs (2a-2h, 5a-5d) individually and connected in parallel; calculating the amount of change (ΔR) of impedance values with respect to a change of areas (S) of the electrodes; and calculating proton conductivity of said film from the calculated amount of change (ΔR) and the thickness (L) of the film. configuring an electrolyte film to be measured interposed between at least three pairs of electrodes (2a-2h, 5a-5d); measuring the impedance of the electrodes pairs (2a-2h, 5a-5d) while an electrode area is changed by using the electrodes pairs (2a-2h, 5a-5d) individually and connected in parallel; calculating the amount of change (ΔR) of impedance values with respect to a change of areas (S) of the electrodes; and calculating proton conductivity of said film from the calculated amount of change (ΔR) and the thickness (L) of the film.
Method for assessing the signal quality in a network consisting of a communications network, in which a plurality of transmitters are connected to one and the same cable and the transmission links from each of these transmitters to the measuring point have different length, multidrop, wherein the signal quality for each transmitter present in the network is recorded separately and shown in the form of the eye diagram and assessed, wherein furthermore, possible communications errors are recorded as a data stream on the digital plane, assessed and displayed, and the data stream is divided into sections of equal length which have a length many times the signal duration, and these sections are written one over another with the aid of an afterglowing oscilloscope or storage oscilloscope, wherein an image in the form of an eye diagram is produced on the screen, characterised in that the communications network 1.) operates using Manchester-encoded signals and the eye diagram is shown as a double eye, wherein the line is assessed as high-grade if the left eye is closed, that is, is infiltrated by curve paths, while the right eye is open, 2.) and consists of a fieldbus or a communications network for industrial automatization, the structure of which in the network relates to a certain topology of sensors, actuators and field devices which are arranged in a relatively uncertain structure, namely for example on a star-like structure, a ring structure, a line structure with lines and short stub lines and with a tree structure, 3.) and in that the fieldbus or the communications network uses only two lines for transmitting data and energy. 1.) operates using Manchester-encoded signals and the eye diagram is shown as a double eye, wherein the line is assessed as high-grade if the left eye is closed, that is, is infiltrated by curve paths, while the right eye is open, 2.) and consists of a fieldbus or a communications network for industrial automatization, the structure of which in the network relates to a certain topology of sensors, actuators and field devices which are arranged in a relatively uncertain structure, namely for example on a star-like structure, a ring structure, a line structure with lines and short stub lines and with a tree structure, 3.) and in that the fieldbus or the communications network uses only two lines for transmitting data and energy.
A method for receiving and processing data of a radio link control layer, comprising: receiving (S110) a target radio link control, RLC, protocol data unit, PDU; and when a data field of the target RLC PDU merely comprises a segment of a complete RLC service data unit, SDU, processing (S120) the target RLC PDU or discarding the target RLC PDU according to a current operating state of a re-assembly timer corresponding to a value of a sequence number, SN, comprised in the target RLC PDU, wherein the target RLC PDU is one of a plurality of RLC PDUs, the plurality of RLC PDUs has SNs of a same value, and the plurality of RLC PDUs is capable of being re-assembled into the complete RLC SDU, and the current operating state is one of the following operating states: non-activated state, counting state and expired state; wherein the method further comprises: determining the re-assembly timer according to the value of the SN comprised in the target RLC PDU. receiving (S110) a target radio link control, RLC, protocol data unit, PDU; and when a data field of the target RLC PDU merely comprises a segment of a complete RLC service data unit, SDU, processing (S120) the target RLC PDU or discarding the target RLC PDU according to a current operating state of a re-assembly timer corresponding to a value of a sequence number, SN, comprised in the target RLC PDU, wherein the target RLC PDU is one of a plurality of RLC PDUs, the plurality of RLC PDUs has SNs of a same value, and the plurality of RLC PDUs is capable of being re-assembled into the complete RLC SDU, and the current operating state is one of the following operating states: non-activated state, counting state and expired state; wherein the method further comprises: determining the re-assembly timer according to the value of the SN comprised in the target RLC PDU.
A method for calibrating a treatment probe including at least one transducer for generating high-intensity focused ultrasound in a target focusing area, the probe being intended to be electrically connected to a power supply source for providing an electric signal for the power supply of the transducer, characterized in that the method comprises a step for adjusting a frequency of the electric signal for the power supply of the transducer so that the variation between the maximum vibration intensity and the minimum vibration intensity of the transducer along its width (L) is minimal, the step for adjusting the excitation frequency of the transducer comprising the sub-steps of: o supplying the transducer with a plurality of input signals having equal amplitudes and different respective frequencies, o measuring temperatures or pressures in different points of the target area for each input signal, o obtaining a temperature or pressure profile of the transducer for each input signal, o selecting from among the plurality of temperature or pressure profiles of the transducer, the temperature or pressure profile for which the variation between the maximum and the minimum temperature, respectively pressure, of the temperature or pressure profile is the smallest along the width of the transducer, o calculating the frequency of the electric signal for the power supply of the transducer from the frequency of the input signal associated with the selected temperature or pressure profile. o supplying the transducer with a plurality of input signals having equal amplitudes and different respective frequencies, o measuring temperatures or pressures in different points of the target area for each input signal, o obtaining a temperature or pressure profile of the transducer for each input signal, o selecting from among the plurality of temperature or pressure profiles of the transducer, the temperature or pressure profile for which the variation between the maximum and the minimum temperature, respectively pressure, of the temperature or pressure profile is the smallest along the width of the transducer, o calculating the frequency of the electric signal for the power supply of the transducer from the frequency of the input signal associated with the selected temperature or pressure profile.
Method for reducing material creep processes of a windshield wiper device, comprising: - providing a windshield wiper device for a vehicle, in particular a motor vehicle, comprising a wiper blade with an elongate upper part which is designed to be at least partially flexible, an elongate lower part which is designed to be at least partially flexible, and multiple connecting elements for connecting the upper part and the lower part , wherein the connecting elements are spaced apart from one another along a longitudinal extent of the wiper blade, and wherein the connecting elements are designed to permit a movement of the upper part and of the lower part relative to one another with a movement component along a longitudinal extent of the wiper blade, - loading the windshield wiper device before final installation of the windshield wiper device on a vehicle, such that, after final installation of the windshield wiper device, a primary creep behavior of the windshield wiper device is substantially reduced, in particular by at least 80%. - providing a windshield wiper device for a vehicle, in particular a motor vehicle, comprising a wiper blade with an elongate upper part which is designed to be at least partially flexible, an elongate lower part which is designed to be at least partially flexible, and multiple connecting elements for connecting the upper part and the lower part , wherein the connecting elements are spaced apart from one another along a longitudinal extent of the wiper blade, and wherein the connecting elements are designed to permit a movement of the upper part and of the lower part relative to one another with a movement component along a longitudinal extent of the wiper blade, - loading the windshield wiper device before final installation of the windshield wiper device on a vehicle, such that, after final installation of the windshield wiper device, a primary creep behavior of the windshield wiper device is substantially reduced, in particular by at least 80%.
A refrigerator appliance comprising: a cabinet ; an ice maker attached to the cabinet ; a dispenser recess defined on the refrigerator appliance in selective communication with the ice maker ; and a dispenser conduit disposed within the dispenser recess , the dispenser conduit comprising a chute wall defining an ice passage permitting ice therethrough, a fluid inlet positioned radially outward from the ice passage in fluid communication with a fluid source selectively supplying a fluid flow thereto, characterized by a manifold channel extending within the chute wall about at least a portion of the ice passage , the manifold channel being in downstream fluid communication with the fluid inlet , and a plurality of discrete fluid outlets defined through the chute wall in downstream fluid communication with the manifold channel , the plurality of discrete fluid outlets being circumferentially spaced apart along the manifold channel . a cabinet ; an ice maker attached to the cabinet ; a dispenser recess defined on the refrigerator appliance in selective communication with the ice maker ; and a dispenser conduit disposed within the dispenser recess , the dispenser conduit comprising a chute wall defining an ice passage permitting ice therethrough, a fluid inlet positioned radially outward from the ice passage in fluid communication with a fluid source selectively supplying a fluid flow thereto, an ice passage permitting ice therethrough, a fluid inlet positioned radially outward from the ice passage in fluid communication with a fluid source selectively supplying a fluid flow thereto, characterized by a manifold channel extending within the chute wall about at least a portion of the ice passage , the manifold channel being in downstream fluid communication with the fluid inlet , and a plurality of discrete fluid outlets defined through the chute wall in downstream fluid communication with the manifold channel , the plurality of discrete fluid outlets being circumferentially spaced apart along the manifold channel . a manifold channel extending within the chute wall about at least a portion of the ice passage , the manifold channel being in downstream fluid communication with the fluid inlet , and a plurality of discrete fluid outlets defined through the chute wall in downstream fluid communication with the manifold channel , the plurality of discrete fluid outlets being circumferentially spaced apart along the manifold channel .
A gas turbine engine testing arrangement comprising a gas turbine engine and an inlet screen , the gas turbine engine comprising an engine core comprising an inlet having a radial extent extending from an engine longitudinal axis to a first radial position , and a fan duct inlet having a radial extent extending from the first radial position to a fan casing , the inlet screen comprising an at least part annular porous grid radially extending across at least part of the radial extent of the fan duct inlet , and not extending across any substantial part of the radial extent of the core inlet, characterised in that the inlet screen comprises a part circumferential gap extending across at least part of the radial extent of the fan duct inlet .
A transmitting method based on MMT, MPEG Media Transport, comprising: encoding (S10) a video signal and generating encoded data including a plurality of access units; storing (S11) the plurality of access units in a packet in a unit that defines one access unit as one unit or in a unit defined by dividing one access unit, and generating a packet group; transmitting (S12) the generated packet group as data to a receiving device; generating first information, second information, and third information, the first information indicating a presentation time of a first access unit that is presented first among the plurality of access units, the second information being used to calculate a decoding time of the plurality of access units, wherein the second information is generated after generating the data, and the third information indicating a relative value of a presentation time of one access unit included in the plurality of access units, relative to a presentation time of another access unit presented immediately previously to the one access unit in a presentation order of the plurality of access units; and transmitting the first information, the second information, and the third information respectively as meta data corresponding to the data to the receiving device, characterized by the meta data and the data being transmitted in different packets, wherein the first information, the second information, and the data are transmitted in a predetermined order out of a plurality of orders, and signaling information indicating the predetermined order. encoding (S10) a video signal and generating encoded data including a plurality of access units; storing (S11) the plurality of access units in a packet in a unit that defines one access unit as one unit or in a unit defined by dividing one access unit, and generating a packet group; transmitting (S12) the generated packet group as data to a receiving device; generating first information, second information, and third information, the first information indicating a presentation time of a first access unit that is presented first among the plurality of access units, the second information being used to calculate a decoding time of the plurality of access units, wherein the second information is generated after generating the data, and the third information indicating a relative value of a presentation time of one access unit included in the plurality of access units, relative to a presentation time of another access unit presented immediately previously to the one access unit in a presentation order of the plurality of access units; and transmitting the first information, the second information, and the third information respectively as meta data corresponding to the data to the receiving device, characterized by the meta data and the data being transmitted in different packets, wherein the first information, the second information, and the data are transmitted in a predetermined order out of a plurality of orders, and signaling information indicating the predetermined order.
Method for producing rotors or stators of electric machines, wherein the rotors or stators have radial grooves into which the webs of flat coils with parallel webs and winding heads connecting the latter are inserted, wherein the flat coils are prefabricated on a rotating strip-shaped flat former and the initially flat coils are inserted into the radial grooves of a rotor or a transposing tool for passing on into the grooves of a stator, characterised in that the coil is generated on a former which is shorter than the whole coil such that the first windings generated are removed from the former before the production of the coil is complete, the removed windings are transposed into a linear transfer device which, at the same time as windings are generated on the former , transports the finished windings to a removal position where the windings are transposed into the radial grooves of the rotor or into the radial grooves of the transposing tool for transposition of the coil into the radial grooves of the stator, wherein the former , the transfer device and the rotor or the transposing tool are jointly rotated about the axis of rotation of the former whenever the former is rotated in order to form windings.