mhurhangee/patent-ind-claim-en huggingface dataset:
A device for analyzing an analyte comprising: a spectrometer with an entrance for accepting analyte ions and a detector for detecting analyzed analyte ions; an atmospheric pressure source configured to generate ionizing species; a supply to one or both of generate heat and transfer heat; and one or more mesh positioned between the atmospheric pressure source and the spectrometer, where the analyte is introduced directly on or near the one or more mesh, where the one or more mesh is configured to transfer heat to the analyte prior to gas phase ionization, where gas phase analyte molecules interact with ionizing species generated by the atmospheric pressure source to form a plurality of analyte ions which enter the spectrometer and are analyzed. a spectrometer with an entrance for accepting analyte ions and a detector for detecting analyzed analyte ions; an atmospheric pressure source configured to generate ionizing species; a supply to one or both of generate heat and transfer heat; and one or more mesh positioned between the atmospheric pressure source and the spectrometer, where the analyte is introduced directly on or near the one or more mesh, where the one or more mesh is configured to transfer heat to the analyte prior to gas phase ionization, where gas phase analyte molecules interact with ionizing species generated by the atmospheric pressure source to form a plurality of analyte ions which enter the spectrometer and are analyzed.
An apparatus comprising: means for receiving stereo parameters encoded, by an encoder, the stereo parameters being encoded using a plurality of windows having a first length of overlapping portions between the plurality of windows; and means for performing an upmix operation using the stereo parameters to generate at least two audio signals, the at least two audio signals generated based on a second plurality of windows used in the upmix operation, the second plurality of windows having a second length of overlapping portions between the second plurality of windows, the second length different from the first length. means for receiving stereo parameters encoded, by an encoder, the stereo parameters being encoded using a plurality of windows having a first length of overlapping portions between the plurality of windows; and means for performing an upmix operation using the stereo parameters to generate at least two audio signals, the at least two audio signals generated based on a second plurality of windows used in the upmix operation, the second plurality of windows having a second length of overlapping portions between the second plurality of windows, the second length different from the first length.
Method for producing, in particular continuously producing, an elongated product , in which: - a core of the elongated product is continuously conveyed through an extrusion head of an extrusion unit , - by means of the extrusion unit and with unchanged material flow, a material is extruded onto the core as a uniform sheath with a predetermined wall thickness (W), wherein, downstream of the extrusion unit and while the material is still mouldable, the elongated product is fed in a conveying direction (F) to a moulding unit , characterized in that part of the material is backed up along the conveying direction (F) by means of the moulding unit , in that this particular part of the material is displaced with respect to the rest of the material, and in that a moulded part is integrally formed on the sheath from the backed-up material. - a core of the elongated product is continuously conveyed through an extrusion head of an extrusion unit , - by means of the extrusion unit and with unchanged material flow, a material is extruded onto the core as a uniform sheath with a predetermined wall thickness (W),
A frame for carrying a load in a wind turbine , the frame comprising: - a first beam and a second beam extending in a lengthwise direction, - a third beam extending in a transverse direction between a first joint on the first beam and a second joint on the second beam, the third beam configured for carrying the load, and - a stress-inducing cross-shaped structure forming four legs (19-22) joined at an intersection and extending therefrom towards four ends , where two of the four ends are attached on opposite sides of the joint on the first beam and the other two of the four ends are attached on opposite sides of the joint on the second beam; wherein the cross-shaped structure is decoupled from the third beam, wherein the third beam extends between upper and lower edges in a height direction perpendicular to the lengthwise direction and perpendicular to the transverse direction, the cross-shaped structure crossing the third beam at a junction between the upper and lower edges, characterized in that the third beam is assembled from separate beam elements joined at the junction. - a first beam and a second beam extending in a lengthwise direction, - a third beam extending in a transverse direction between a first joint on the first beam and a second joint on the second beam, the third beam configured for carrying the load, and - a stress-inducing cross-shaped structure forming four legs (19-22) joined at an intersection and extending therefrom towards four ends , where two of the four ends are attached on opposite sides of the joint on the first beam and the other two of the four ends are attached on opposite sides of the joint on the second beam;
A cell culture medium, comprising Triglyceride 1.1 mmol/l Cholesterol 4.1 mmol/l HDL-cholesterol 1.1 mmol/l LDL-cholesterol 2.5 mmol/l Estradiol 86 pmol/l T3 11 pmol/l T4 4.4 pmol/l Cortisol 231 nmol/l Testosterone 12 nmol/l SHGB 26 nmol/l Insulin 7.2 mlE/l IGF-1 157 μg/l S-GH 0.3 μg/l and 10 μmol of NY-ESO-1 peptide, 1000 U/ml of IL-2, 10 ng/ml of IL-15 and 10 ng/ml of IL-21.
A waste system, comprising: a vacuum cell ; a flexible waste container with at least one flexible membrane at an interface between the flexible waste container and the vacuum cell; a vacuum source configured to suction air out of the vacuum cell to generate a negative pressure in the vacuum cell, wherein the negative pressure acts on the flexible waste container to generate a second negative pressure in the flexible waste container, and the second negative pressure acts on an interface between a toilet and the flexible waste container to pull waste from the toilet into the flexible waste container; and a vacuum valve between the vacuum cell and the vacuum source, the vacuum valve configured to open when the vacuum source is suctioning air out of the vacuum cell and configured to close after the vacuum source has suctioned air out of the vacuum cell, characterized in that said waste system further comprises : a discharge valve between the vacuum source and a discharge vent , the discharge valve configured to open after closing the vacuum valve so that at least a portion of the air suctioned out of the vacuum cell is discharged through the discharge vent. a vacuum cell ; a flexible waste container with at least one flexible membrane at an interface between the flexible waste container and the vacuum cell; a vacuum source configured to suction air out of the vacuum cell to generate a negative pressure in the vacuum cell, wherein the negative pressure acts on the flexible waste container to generate a second negative pressure in the flexible waste container, and the second negative pressure acts on an interface between a toilet and the flexible waste container to pull waste from the toilet into the flexible waste container; and a vacuum valve between the vacuum cell and the vacuum source, the vacuum valve configured to open when the vacuum source is suctioning air out of the vacuum cell and configured to close after the vacuum source has suctioned air out of the vacuum cell, characterized in that said waste system further comprises : a discharge valve between the vacuum source and a discharge vent , the discharge valve configured to open after closing the vacuum valve so that at least a portion of the air suctioned out of the vacuum cell is discharged through the discharge vent.
Method of generating a tamper-proof time-dependent signal on a capacitive surface sensor comprising the following steps: a) Providing an apparatus having a capacitive surface sensor and a device comprising an electrically conductive structure having structural elements on a non-conductive substrate for generating static signals on the capacitive surface sensor , b) Placing the device on the surface sensor , thereby generating a set of static signals on the surface sensor , and wherein the static signals are assigned positions on the surface sensor which are determined by the arrangement of the structural elements of the electrically conductive structure , c) Providing a dynamic input on or along the device in the form of a movement and/or a gesture with an input means without the input means contacting the electrically conductive structure , wherein an edge of the device is used for guiding the input by the input means and whereby on the capacitive surface sensor a dynamic input signal is generated and deflects the assigned positions of the static signals on the capacitive surface sensor and thereby converting the static signals into dynamic signals so that the dynamic input signal and the dynamic signals represent a time-dependent overall signal which is evaluated by the apparatus including the capacitive surface sensor . a) Providing an apparatus having a capacitive surface sensor and a device comprising an electrically conductive structure having structural elements on a non-conductive substrate for generating static signals on the capacitive surface sensor , b) Placing the device on the surface sensor , thereby generating a set of static signals on the surface sensor , and wherein the static signals are assigned positions on the surface sensor which are determined by the arrangement of the structural elements of the electrically conductive structure , c) Providing a dynamic input on or along the device in the form of a movement and/or a gesture with an input means without the input means contacting the electrically conductive structure , wherein an edge of the device is used for guiding the input by the input means and whereby on the capacitive surface sensor a dynamic input signal is generated and deflects the assigned positions of the static signals on the capacitive surface sensor and thereby converting the static signals into dynamic signals so that the dynamic input signal and the dynamic signals represent a time-dependent overall signal which is evaluated by the apparatus including the capacitive surface sensor .
An anti-tamper device comprising: an RFID component ; and an article surveillance or security component with a display element for indicating tampering with the anti-tamper device, wherein the RFID component comprises a microchip , an antenna operatively coupled to the microchip, and a capacitor integrated with the microchip , and further wherein the display element is operatively coupled to the RFID component for indicating intactness of the RFID component, characterized in that the microchip and the capacitor form a circuit , and wherein a change in voltage from the capacitor that occurs when the circuit is broken provides power to drive a change in the display element . an RFID component ; and an article surveillance or security component with a display element for indicating tampering with the anti-tamper device, wherein the RFID component comprises a microchip , an antenna operatively coupled to the microchip, and a capacitor integrated with the microchip , and further wherein the display element is operatively coupled to the RFID component for indicating intactness of the RFID component, characterized in that the microchip and the capacitor form a circuit , and wherein a change in voltage from the capacitor that occurs when the circuit is broken provides power to drive a change in the display element .
Travel vehicle body, in particular motor home body, with at least one underbody unit and with at least one upper bottom unit , in particular configured for a self-supporting connection of a rear axle unit to a driver's cab unit and delimiting a stowage space that is arranged at least partially between the rear axle unit and the driver's cab unit and that extends in at least one region continuously from a first longitudinal body side to a second longitudinal body side , the underbody unit comprising an underbody which forms an at least substantially planar underbody surface extending continuously over at least a large portion of an extension from the rear axle unit to the driver's cab unit , wherein the underbody unit comprises a first lower beam extending along the first longitudinal body side and wherein the underbody unit comprises a second lower beam extending along the second longitudinal body side , the first lower beam and the second lower beam being realised, at least in a region of the underbody , free of transverse bars, characterised by at least one first exterior bar extending on the first longitudinal body side from an outer edge of the underbody to an outer edge of the upper bottom unit , wherein the at least one first exterior bar runs obliquely with respect to a vertical direction of the underbody surface .
A fluid sterilization device characterized by comprising: a tube portion ; a supply head provided in one end portion of the tube portion ; a discharge head provided in the other end portion of the tube portion and having a hole penetrating a space between an end face on the tube portion side and an end face on a side opposite to the tube portion side; a holder having a flange and a protruding portion projecting from one surface of the flange and provided in the hole of the discharge head ; a substrate provided on an end face of the protruding portion on a side opposite to the flange side; a light-emitting element provided on a surface of the substrate on a side opposite to the protruding portion side and emitting ultraviolet rays; a window provided in the hole of the discharge head and facing the light-emitting element ; and a desiccant provided in the hole of the discharge head , and L1 (mm) ≥ L2 (mm) that is satisfied when L1 (mm) is a distance between the desiccant and the window , and L2 (mm) is a distance between the window and a surface of the light-emitting element emitting the ultraviolet rays. a tube portion ; a supply head provided in one end portion of the tube portion ; a discharge head provided in the other end portion of the tube portion and having a hole penetrating a space between an end face on the tube portion side and an end face on a side opposite to the tube portion side; a holder having a flange and a protruding portion projecting from one surface of the flange and provided in the hole of the discharge head ; a substrate provided on an end face of the protruding portion on a side opposite to the flange side; a light-emitting element provided on a surface of the substrate on a side opposite to the protruding portion side and emitting ultraviolet rays; a window provided in the hole of the discharge head and facing the light-emitting element ; and a desiccant provided in the hole of the discharge head , and L1 (mm) ≥ L2 (mm) that is satisfied when L1 (mm) is a distance between the desiccant and the window , and L2 (mm) is a distance between the window and a surface of the light-emitting element emitting the ultraviolet rays.
A manufacturing method of a device embedded substrate, comprising: a bonding layer forming step of forming a bonding layer constituted of an insulation material on a metal layer formed on a support plate ; and a device mounting step of mounting an electric or electronic device on the bonding layer , wherein the device is formed of a device main body and a terminal protruding from the device main body , the bonding layer is constituted of a first bonding body to be bonded with the metal layer and a second bonding body to be bonded with the device , the first bonding body is formed in an area substantially limited by the outer edge of the device in planar view, the second bonding body is applied to and formed in an area equal to or smaller than the area defined by the outer edge of the terminal in planar view, and in the bonding layer forming step, the second bonding body is formed on the first bonding body after the first bonding body is cured. a bonding layer forming step of forming a bonding layer constituted of an insulation material on a metal layer formed on a support plate ; and a device mounting step of mounting an electric or electronic device on the bonding layer , wherein the device is formed of a device main body and a terminal protruding from the device main body , the bonding layer is constituted of a first bonding body to be bonded with the metal layer and a second bonding body to be bonded with the device , the first bonding body is formed in an area substantially limited by the outer edge of the device in planar view, the second bonding body is applied to and formed in an area equal to or smaller than the area defined by the outer edge of the terminal in planar view, and in the bonding layer forming step, the second bonding body is formed on the first bonding body after the first bonding body is cured.
A fluidic dispensing device , wherein the fluidic dispensing device comprises: a casing configured to have a reservoir chamber and a primary vent chamber ; a regulation member configured to be associated with the reservoir chamber ; an end cap configured to be positioned at an end of the casing, and to be connected to the casing; and a vent path configured to extend from the primary vent chamber to the atmosphere through a gap between the end cap and the casing , characterized in that the regulation member is a diaphragm that is in sealing engagement with a perimetrical end surface (150-3) to cover the reservoir chamber . a casing configured to have a reservoir chamber and a primary vent chamber ; a regulation member configured to be associated with the reservoir chamber ; an end cap configured to be positioned at an end of the casing, and to be connected to the casing; and a vent path configured to extend from the primary vent chamber to the atmosphere through a gap between the end cap and the casing , characterized in that the regulation member is a diaphragm that is in sealing engagement with a perimetrical end surface (150-3) to cover the reservoir chamber .
A signal driver circuit , comprising: an input configured to receive an input signal (im, ip); an output configured to transmit an output signal (om, op); a low drop-out voltage regulator, LDO , having a regulated voltage output (V_LDO); a set of voltage-modulated amplifiers having a first input coupled to the regulated voltage output, and a second input configured to receive the input signal; wherein each voltage-modulated amplifier is configured to amplify the input signal and transmit an amplified input signal on the output of the signal driver circuit; a de-emphasis controller , including a set of de-emphasis levels; wherein the de-emphasis controller is configured to selectively switch-on a first subset of the set of voltage-modulated amplifiers and switch-off a second subset of the set of voltage-modulated amplifiers based on the de-emphasis levels. an input configured to receive an input signal (im, ip); an output configured to transmit an output signal (om, op); a low drop-out voltage regulator, LDO , having a regulated voltage output (V_LDO); a set of voltage-modulated amplifiers having a first input coupled to the regulated voltage output, and a second input configured to receive the input signal; wherein each voltage-modulated amplifier is configured to amplify the input signal and transmit an amplified input signal on the output of the signal driver circuit; a de-emphasis controller , including a set of de-emphasis levels; wherein the de-emphasis controller is configured to selectively switch-on a first subset of the set of voltage-modulated amplifiers and switch-off a second subset of the set of voltage-modulated amplifiers based on the de-emphasis levels.
A wet dispersing device for a dispersion circuit , in particular for laser particle size measuring devices, comprising: a sample bath for a dispersion , containing a liquid dispersion medium; a feed line for introducing the dispersion into the dispersion circuit ; a return line for returning the dispersion from the dispersion circuit to the sample bath ; a pump for pumping the dispersion through the dispersion circuit ; an outlet for discharging the dispersion from the dispersion circuit in order to empty and/or flush the dispersion circuit ; defining i) a circulation position in which, when the pump is operated, the dispersion is pumped into the dispersion circuit and circulates through the dispersion circuit and the sample bath in order to allow for measurements to be made on the dispersion using a measuring cell through which the dispersion flows; and ii) a discharge and flush position in which, when the pump is operated, the dispersion is pumped from the dispersion circuit into the outlet , to empty the dispersion circuit and the sample bath from the dispersion contained therein and, optionally, to flush with fresh medium; characterized by a pH probe for measuring the pH value of the dispersion in the dispersion circuit . a sample bath for a dispersion , containing a liquid dispersion medium; a feed line for introducing the dispersion into the dispersion circuit ; a return line for returning the dispersion from the dispersion circuit to the sample bath ; a pump for pumping the dispersion through the dispersion circuit ; an outlet for discharging the dispersion from the dispersion circuit in order to empty and/or flush the dispersion circuit ; defining i) a circulation position in which, when the pump is operated, the dispersion is pumped into the dispersion circuit and circulates through the dispersion circuit and the sample bath in order to allow for measurements to be made on the dispersion using a measuring cell through which the dispersion flows; and ii) a discharge and flush position in which, when the pump is operated, the dispersion is pumped from the dispersion circuit into the outlet , to empty the dispersion circuit and the sample bath from the dispersion contained therein and, optionally, to flush with fresh medium; i) a circulation position in which, when the pump is operated, the dispersion is pumped into the dispersion circuit and circulates through the dispersion circuit and the sample bath in order to allow for measurements to be made on the dispersion using a measuring cell through which the dispersion flows; and ii) a discharge and flush position in which, when the pump is operated, the dispersion is pumped from the dispersion circuit into the outlet , to empty the dispersion circuit and the sample bath from the dispersion contained therein and, optionally, to flush with fresh medium; characterized by a pH probe for measuring the pH value of the dispersion in the dispersion circuit .