mhurhangee/patent-ind-claim-en huggingface dataset:
A system for recovery of thermal energy from a first closed cooling loop for cooling skid pipes in a steel production facility , said first closed cooling loop comprising a circulation fluid which receives thermal energy from said skid pipes , and a cooling source , wherein said system comprises: - means for measuring the temperature (T) in said first closed cooling loop , - a power conversion module configured to work in a closed loop thermodynamic cycle and convert thermal energy into electricity, wherein said power conversion module is arranged to be connected to the first closed cooling loop in fluid communication with the cooling source ; wherein the power conversion module further comprises a flow control system arranged to control input of thermal energy into said power conversion module , characterized in that the flow control system comprises conduits for connecting the power conversion module to the first closed cooling loop and the cooling source , and valves for selectively closing and opening the conduits to direct flow of said circulation fluid therein, wherein said flow control system is arranged to cut off said cooling source from said first closed cooling loop when a measured temperature (T) in said first closed cooling loop is below a first predetermined threshold temperature (T START ), such that said circulation fluid is directed exclusively to a hot side of said power conversion module , to provide a thermal energy input into said power conversion module . - means for measuring the temperature (T) in said first closed cooling loop , - a power conversion module configured to work in a closed loop thermodynamic cycle and convert thermal energy into electricity, wherein said power conversion module is arranged to be connected to the first closed cooling loop in fluid communication with the cooling source ;
A system with integrated tracking, comprising: a procedure-specific hardware component (112 or 116) disposed at or near a region of interest , wherein the procedure-specific hardware includes a grid or a stepper employed in a brachytherapy procedure; a field generator configured to generate a field with a field of view covering the region of interest; a mounting device connected to the field generator and coupled to the procedure-specific hardware, wherein the mounting device is coupled to the grid or stepper, and wherein the field generator is fixedly positioned by the mounting device to permit workflow access to the region of interest without interfering with the field generator and to provide a known position of the field generator relative to the region of interest; and a tracking device configured to be inserted in or near the region of interest to be tracked within the field of view of the field generator to generate tracking data. a procedure-specific hardware component (112 or 116) disposed at or near a region of interest , wherein the procedure-specific hardware includes a grid or a stepper employed in a brachytherapy procedure; a field generator configured to generate a field with a field of view covering the region of interest; a mounting device connected to the field generator and coupled to the procedure-specific hardware, wherein the mounting device is coupled to the grid or stepper, and wherein the field generator is fixedly positioned by the mounting device to permit workflow access to the region of interest without interfering with the field generator and to provide a known position of the field generator relative to the region of interest; and a tracking device configured to be inserted in or near the region of interest to be tracked within the field of view of the field generator to generate tracking data.
An electrode assembly, comprising: a cell stack part having (a) a structure in which one kind of radical unit is repeatedly disposed, the one kind of radical unit having a same number of electrodes and separators which are alternately disposed, or (b) a structure in which at least two kinds of radical units are disposed in a predetermined order, the at least two kinds of radical units each having a same number of electrodes and separators which are alternately disposed; the one kind of radical unit of (a) has a four-layered structure in which a first electrode , a first separator , a second electrode and a second separator are sequentially stacked or a repeating structure in which the four-layered structure is repeatedly stacked; each of the at least two kinds of radical units of (b) are stacked by ones in the predetermined order to form the four-layered structure or the repeating structure in which the four-layered structure is repeatedly stacked; and characterized in that an outer separator that is a separator among separators of a radical unit positioned at an outermost part of the cell stack part is longer than a longitudinal side of the cell stack part , and on an end part A of the outer separator , the first electrode , the first separator , and the second electrode are stacked in sequence, and the other end part B of the outer separator is wound around the radical unit and is positioned at the end part A of the outer separator . a cell stack part having (a) a structure in which one kind of radical unit is repeatedly disposed, the one kind of radical unit having a same number of electrodes and separators which are alternately disposed, or (b) a structure in which at least two kinds of radical units are disposed in a predetermined order, the at least two kinds of radical units each having a same number of electrodes and separators which are alternately disposed; the one kind of radical unit of (a) has a four-layered structure in which a first electrode , a first separator , a second electrode and a second separator are sequentially stacked or a repeating structure in which the four-layered structure is repeatedly stacked; each of the at least two kinds of radical units of (b) are stacked by ones in the predetermined order to form the four-layered structure or the repeating structure in which the four-layered structure is repeatedly stacked; and characterized in that an outer separator that is a separator among separators of a radical unit positioned at an outermost part of the cell stack part is longer than a longitudinal side of the cell stack part , and on an end part A of the outer separator , the first electrode , the first separator , and the second electrode are stacked in sequence, and the other end part B of the outer separator is wound around the radical unit and is positioned at the end part A of the outer separator .
An optical element comprising a main substrate fabricated from light transmitting material, whereof the front surface and rear surface are parallel to a set direction for reflecting image display light in alternation multiple times, and having at least one main beam splitter surface formed diagonally to said set direction inside said main substrate , the optical element being further characterized in that it comprises a secondary substrate fabricated from light transmitting material, whereof the front surface and rear surface are parallel to said set direction whereby a gap is provided between the front surface and the rear surface , and a secondary beam splitter surface having a transmittance of 20% or greater to 80% or less is arranged between the front surface of the secondary substrate and the rear surface of said main substrate or between the rear surface of the secondary substrate and the front surface of said main substrate , whereby the secondary beam splitter surface is arranged to reflect a predetermined fraction of the luminous flux of the image display light to advance into the main substrate , and to transmit a predetermined fraction of the luminous flux of the image display light to advance into the secondary substrate such that in accordance with said gap an offset occurs between the optical path of the image display light advancing inside the main substrate and the optical path of the image display light advancing inside the secondary substrate across said gap to suppress an occurrence of regions where luminous flux of image display light propagating through the inside of the main substrate is not present. and having at least one main beam splitter surface formed diagonally to said set direction inside said main substrate , the optical element being further characterized in that it comprises a secondary substrate fabricated from light transmitting material, whereof the front surface and rear surface are parallel to said set direction whereby a gap is provided between the front surface and the rear surface , and a secondary beam splitter surface having a transmittance of 20% or greater to 80% or less is arranged between the front surface of the secondary substrate and the rear surface of said main substrate or between the rear surface of the secondary substrate and the front surface of said main substrate , whereby the secondary beam splitter surface is arranged to reflect a predetermined fraction of the luminous flux of the image display light to advance into the main substrate , and to transmit a predetermined fraction of the luminous flux of the image display light to advance into the secondary substrate such that in accordance with said gap an offset occurs between the optical path of the image display light advancing inside the main substrate and the optical path of the image display light advancing inside the secondary substrate across said gap to suppress an occurrence of regions where luminous flux of image display light propagating through the inside of the main substrate is not present.
A method of sharing content, said method executed by an electronic device and wherein the method comprises the steps of: accessing a resource file associated with a party, said resource file comprising information relating to one or more devices associated with the party and information about connectivity bearers useable by the party; and determining a manner in which to share one or more content files with the party based at least in part on the information included in the resource file and wherein determining the manner in which to share the content files includes determining which connectivity bearer to use, and wherein: the information included in the resource file comprises some combination of one or more capabilities of, one or more protocols supported by and one or more addresses associated with respective devices associated with the party; and determining a manner in which to share one or more content files with the party comprises determining with which of the one or more devices associated with the party to share the content files. accessing a resource file associated with a party, said resource file comprising information relating to one or more devices associated with the party and information about connectivity bearers useable by the party; and determining a manner in which to share one or more content files with the party based at least in part on the information included in the resource file and wherein determining the manner in which to share the content files includes determining which connectivity bearer to use, and wherein: the information included in the resource file comprises some combination of one or more capabilities of, one or more protocols supported by and one or more addresses associated with respective devices associated with the party; and determining a manner in which to share one or more content files with the party comprises determining with which of the one or more devices associated with the party to share the content files.
Method for applying granular material , in particular seed, comprising the steps of: - generating a plurality of individual airflows by means of a distributor system of an agricultural application machine , which individual airflows are loaded with granular material , and - separating the grains of the granular material of the individual airflows in each case with an electrically driven separating device of the agricultural application machine ; - detecting a current consumption of the respective separating device, and - controlling the distributor system as a function of at least one operating parameter of the respective separating devices , wherein the at least one operating parameter of the respective separating devices comprises the current consumption of the respective separating devices , wherein the controlling of the distributor system comprises the step of: - changing one or more individual airflows that are loaded with granular material ; wherein each individual airflow loaded with granular material is assigned to a separating device and the one or more individual airflows that are loaded with granular material are varied as a function of the at least one operating parameter of the respectively assigned separating device and the individual airflows are adapted independently of one another. - generating a plurality of individual airflows by means of a distributor system of an agricultural application machine , which individual airflows are loaded with granular material , and - separating the grains of the granular material of the individual airflows in each case with an electrically driven separating device of the agricultural application machine ; - detecting a current consumption of the respective separating device, and - controlling the distributor system as a function of at least one operating parameter of the respective separating devices , wherein the at least one operating parameter of the respective separating devices comprises the current consumption of the respective separating devices , wherein the controlling of the distributor system comprises the step of: - changing one or more individual airflows that are loaded with granular material ; wherein each individual airflow loaded with granular material is assigned to a separating device and the one or more individual airflows that are loaded with granular material are varied as a function of the at least one operating parameter of the respectively assigned separating device and the individual airflows are adapted independently of one another.
A wound electrical component comprising: a wound body comprising a plurality of wound layers of an electrically insulating material around a longitudinal axis of the body; ; said wound electrical component being characterised by at least one printed electronics sensor consisting of printed circuits on a flexible substrate ; wherein each of the at least one sensor is interleaved between two of the wound layers. a wound body comprising a plurality of wound layers of an electrically insulating material around a longitudinal axis of the body; ; said wound electrical component being characterised by at least one printed electronics sensor consisting of printed circuits on a flexible substrate ; wherein each of the at least one sensor is interleaved between two of the wound layers.
A computer-implemented method for controlling two or more power supply units (PSUs) of a server system, each PSU comprising an internal fan, and the server system comprises a system fan, wherein the computer-implemented method comprising: monitoring the PSUs by a baseboard management controller (BMC) and detecting a failure of a PSU, said detecting being performed by checking whether the PSUs are switched on to an AC power source; if the PSUs are switched on to the AC power source, then a predefined criterion is checked to determine if the PSUs are in an uncoupled state and at least one of the following is true: a failure of at least one fan in the server system and/or a temperature in the server system is greater than a threshold operational temperature; if the PSUs are not switched on to the AC power source, restarting the AC power source for the two or more PSUs and performing a software-based recovery process which is comprised of: reducing duty of at least one system fan to a predetermined percentage for a predetermined period of time ; and setting a checkpoint period where the two or more PSUs cannot send a failure alert. monitoring the PSUs by a baseboard management controller (BMC) and detecting a failure of a PSU, said detecting being performed by checking whether the PSUs are switched on to an AC power source; if the PSUs are switched on to the AC power source, then a predefined criterion is checked to determine if the PSUs are in an uncoupled state and at least one of the following is true: a failure of at least one fan in the server system and/or a temperature in the server system is greater than a threshold operational temperature; if the PSUs are not switched on to the AC power source, restarting the AC power source for the two or more PSUs and performing a software-based recovery process which is comprised of: reducing duty of at least one system fan to a predetermined percentage for a predetermined period of time ; and setting a checkpoint period where the two or more PSUs cannot send a failure alert. reducing duty of at least one system fan to a predetermined percentage for a predetermined period of time ; and setting a checkpoint period where the two or more PSUs cannot send a failure alert.
An ultrasound probe comprising an interchangeable tip , an ultrasound probe housing , at least one magnet and at least one electrical connector , said interchangeable tip comprising: - at least one ultrasound transducer constructed and configured to emit and receive ultrasound signals, - at least one electrical contact of tip, said at least one electrical contact of tip being constructed and configured to cooperate with one electrical connector , a tip connector constructed and configured to secure the interchangeable tip with the ultrasound probe housing , wherein said ultrasound probe housing comprises: • a probe housing connector constructed and configured to cooperate with the tip connector of the interchangeable tip , • an electrodynamic actuator constructed and configured to cooperate with the at least one ultrasound transducer , said electrodynamic actuator being adapted to generate a low-frequency impulse having a frequency range between about 1 Hz and about 5000 Hz, • at least one electrical contact of probe, said at least one electrical contact of probe being constructed and configured to cooperate with one electrical connector , and wherein each electrical connector is used to electronically connect an electrical contact of the interchangeable tip with an electrical contact of the ultrasound probe housing and the magnet being: - either in the interchangeable tip and being constructed and configured to cooperate with the ultrasound probe housing ; - or in the ultrasound probe housing and being constructed and configured to cooperate with the interchangeable tip . - at least one ultrasound transducer constructed and configured to emit and receive ultrasound signals, - at least one electrical contact of tip, said at least one electrical contact of tip being constructed and configured to cooperate with one electrical connector , • a probe housing connector constructed and configured to cooperate with the tip connector of the interchangeable tip , • an electrodynamic actuator constructed and configured to cooperate with the at least one ultrasound transducer , said electrodynamic actuator being adapted to generate a low-frequency impulse having a frequency range between about 1 Hz and about 5000 Hz, • at least one electrical contact of probe, said at least one electrical contact of probe being constructed and configured to cooperate with one electrical connector , and - either in the interchangeable tip and being constructed and configured to cooperate with the ultrasound probe housing ; - or in the ultrasound probe housing and being constructed and configured to cooperate with the interchangeable tip .
A multi-chip module (MCM) assembly comprising: a graphite substrate comprising a plurality of silicon chips directly attached to the graphite substrate , characterized in that the MCM assembly further comprises a Printed Wiring Board (PWB) attached to the graphite substrate by means of a solvent-resistant adhesive glue and provided with openings surrounding outer perimeters of the silicon chips , wherein the graphite substrate comprises a protruding rim onto which the silicon chip is mounted. a graphite substrate comprising a plurality of silicon chips directly attached to the graphite substrate , characterized in that the MCM assembly further comprises a Printed Wiring Board (PWB) attached to the graphite substrate by means of a solvent-resistant adhesive glue and provided with openings surrounding outer perimeters of the silicon chips , wherein the graphite substrate comprises a protruding rim onto which the silicon chip is mounted.
A three-dimensional laminating and shaping apparatus comprising: a material recoater that recoats a material of a three-dimensional laminated and shaped object onto a shaping plate on which the three-dimensional laminated and shaped object is to be shaped, and the shaping plate is grounded; an electron gun that generates an electron beam; an anti-deposition metal cover formed between the shaping plate and said electron gun ; and an application unit that applies a positive voltage to said cover. a material recoater that recoats a material of a three-dimensional laminated and shaped object onto a shaping plate on which the three-dimensional laminated and shaped object is to be shaped, and the shaping plate is grounded; an electron gun that generates an electron beam; an anti-deposition metal cover formed between the shaping plate and said electron gun ; and an application unit that applies a positive voltage to said cover.
A method for manufacturing an organic electroluminescent light-emitting device with structured pattern of light-emitting and non-emitting areas comprising the steps of: - Providing (P) a substrate covered at least locally with at least one conductive layer as the first electrode ; - Depositing (D-SML) a stack modification layer locally on top of the first electrode to establish first areas covered with the stack modification layer and non-covered second areas adjacent to the first areas forming the desired structured pattern, the stack modification layer being a layer that comprises a perfluorinated vacuum grease or a perfluorinated vacuum pump oil; - Depositing (D-OLS) the organic layer stack comprising at least one organic light-emitting layer on top of the first electrode locally coated with the stack modification layer providing an organic layer stack being separated from the first electrode by the stack modification layer in between the organic layer stack and the first electrode in the first areas and being in direct electrical contract to the first electrode in the second areas ; and - Depositing (D-SE) a conductive metal layer as the second electrode on top of the organic layer stack to finish a functional layer stack , wherein the first areas above the stack modification layer remain free of the conductive metal without masking these first areas . - Providing (P) a substrate covered at least locally with at least one conductive layer as the first electrode ; - Depositing (D-SML) a stack modification layer locally on top of the first electrode to establish first areas covered with the stack modification layer and non-covered second areas adjacent to the first areas forming the desired structured pattern, the stack modification layer being a layer that comprises a perfluorinated vacuum grease or a perfluorinated vacuum pump oil; - Depositing (D-OLS) the organic layer stack comprising at least one organic light-emitting layer on top of the first electrode locally coated with the stack modification layer providing an organic layer stack being separated from the first electrode by the stack modification layer in between the organic layer stack and the first electrode in the first areas and being in direct electrical contract to the first electrode in the second areas ; and - Depositing (D-SE) a conductive metal layer as the second electrode on top of the organic layer stack to finish a functional layer stack , wherein the first areas above the stack modification layer remain free of the conductive metal without masking these first areas .