mhurhangee/patent-ind-claim-en huggingface dataset:
A rectifier identification method, comprising: using each rectifier connected to a pair of pre-added socket resistance buses, SRBs, in the telecom direct current, DC, power supply system to detect a corresponding total resistance value, wherein precision resistors with different resistance values are connected in series at positions on the SRBs which are corresponding to respective rectifiers, and when a rectifier is inserted into a socket, a precision resistor at a corresponding position of the rectifier on the SRBs is short circuited; and identifying whether each rectifier is in place according to the total resistance value of the SRBs; wherein a maximum detection deviation between each two precision resistors with different resistance values is calculated according to the following formula: □ Rt = Rt × 1 + P R × 1 + P ADC − Rt ; where □Rt is the maximum detection deviation between each two precision resistors with different resistance values, Rt is a maximum impedance of a current resistor network, P R is precision of the used precision resistors, and P ADC is detection precision of an analogue-to-digital converter, ADC, adopted in a precision resistor and resistance value detection circuit; and wherein the SRBs refers to one pair of signal buses added among field buses of the telecom DC power supply system for detecting an in-place signal of each rectifier. using each rectifier connected to a pair of pre-added socket resistance buses, SRBs, in the telecom direct current, DC, power supply system to detect a corresponding total resistance value, wherein precision resistors with different resistance values are connected in series at positions on the SRBs which are corresponding to respective rectifiers, and when a rectifier is inserted into a socket, a precision resistor at a corresponding position of the rectifier on the SRBs is short circuited; and identifying whether each rectifier is in place according to the total resistance value of the SRBs; wherein a maximum detection deviation between each two precision resistors with different resistance values is calculated according to the following formula: □ Rt = Rt × 1 + P R × 1 + P ADC − Rt ; where □Rt is the maximum detection deviation between each two precision resistors with different resistance values, Rt is a maximum impedance of a current resistor network, P R is precision of the used precision resistors, and P ADC is detection precision of an analogue-to-digital converter, ADC, adopted in a precision resistor and resistance value detection circuit; and wherein the SRBs refers to one pair of signal buses added among field buses of the telecom DC power supply system for detecting an in-place signal of each rectifier.
An operation command generation device configured to generate an operation command, which is a collection of jobs to be carried out by a process system comprising at least a robot , based on a protocol chart showing a protocol, the protocol chart comprising at least a process symbol representing a process to be carried out on a container containing a process subject, the operation command generation device comprising: a process job generation unit configured to generate, based on the process symbol, a job for causing the process system to carry out the process on the container at a work area, which is an area in which the robot carries out the process on the container; and characterized by a transfer job generation unit configured to generate, when the process represented by the process symbol is not a process to be carried out on at least the same container, a job for causing the process system to transfer the container from the work area to a retreat area, which is an area to which the container temporarily retreats, after the process represented by the process symbol has been carried out, even when the job for causing the process system to transfer the container from the work area to the retreat area is not explicitly shown in the protocol chart. a process job generation unit configured to generate, based on the process symbol, a job for causing the process system to carry out the process on the container at a work area, which is an area in which the robot carries out the process on the container; and characterized by a transfer job generation unit configured to generate, when the process represented by the process symbol is not a process to be carried out on at least the same container, a job for causing the process system to transfer the container from the work area to a retreat area, which is an area to which the container temporarily retreats, after the process represented by the process symbol has been carried out, even when the job for causing the process system to transfer the container from the work area to the retreat area is not explicitly shown in the protocol chart.
A rotational molded article comprising: a polyethylene composition comprising; at least 85 percent by weight of the units derived from ethylene; less than 15 percent by weight of units derived from one or more α-olefin comonomers; wherein said polyethylene composition has a density in the range of 0.930 to 0.945 g/cm 3 (measured according to ASTM D-792-03, Method B, in isopropanol), a molecular weight distribution (M w /M n ) (measured according to the conventional GPC method, as described in the description) in the range of 1.70 to 3.50, a melt index (I 2 ) (measured at 190 °C under a load of 2.16 kg according to ASTM D-1238-03) in the range of 0.5 to 20 g/10 minutes, a molecular weight distribution (M z /M w ) (measured according to the conventional GPC method, as described in the description) in the range of less than 2.5, vinyl unsaturation (measured according to ASTM D-6248-98) of less than 0.06 vinyls per one thousand carbon atoms present in the backbone of said composition, wherein said polyethylene composition is substituted with less than 0.1 long chain branches per 1000 total carbons (as determined according to gel permeation chromatography coupled with low angle laser light scattering detector (GPC-LALLS) or gel permeation chromatography coupled with a differential viscometer detector (GPC-DV)); wherein said polyethylene composition comprises the (co)polymerization reaction product of ethylene and optionally one or more α-olefin comonomers in the presence of a hafnium based metallocene catalyst via a gas phase (co)polymerization process in a single stage reactor. at least 85 percent by weight of the units derived from ethylene; less than 15 percent by weight of units derived from one or more α-olefin comonomers; wherein said polyethylene composition has a density in the range of 0.930 to 0.945 g/cm 3 (measured according to ASTM D-792-03, Method B, in isopropanol), a molecular weight distribution (M w /M n ) (measured according to the conventional GPC method, as described in the description) in the range of 1.70 to 3.50, a melt index (I 2 ) (measured at 190 °C under a load of 2.16 kg according to ASTM D-1238-03) in the range of 0.5 to 20 g/10 minutes, a molecular weight distribution (M z /M w ) (measured according to the conventional GPC method, as described in the description) in the range of less than 2.5, vinyl unsaturation (measured according to ASTM D-6248-98) of less than 0.06 vinyls per one thousand carbon atoms present in the backbone of said composition, wherein said polyethylene composition is substituted with less than 0.1 long chain branches per 1000 total carbons (as determined according to gel permeation chromatography coupled with low angle laser light scattering detector (GPC-LALLS) or gel permeation chromatography coupled with a differential viscometer detector (GPC-DV)); wherein said polyethylene composition comprises the (co)polymerization reaction product of ethylene and optionally one or more α-olefin comonomers in the presence of a hafnium based metallocene catalyst via a gas phase (co)polymerization process in a single stage reactor.
An air conditioner comprising an indoor device and an outdoor device , wherein the outdoor device comprises: a plurality of compressors ; an accumulator connected to an introduction side of the plurality of compressors ; an outdoor heat exchanger connected to the plurality of compressors ; an excessive cooler connected to the outdoor heat exchanger ; a first refrigerant tube communicating with the excessive cooler and the accumulator ; a plurality of bypass tubes respectively connected to the compressors and the first refrigerant tube ; and a plurality of bypass valves provided to the bypass tubes , respectively, wherein, in a state in which at least one of the plurality of compressors is stopped, at least one bypass valve, of the plurality of bypass valves , corresponding to the at least one stopped compressor is configured to be opened. a plurality of compressors ; an accumulator connected to an introduction side of the plurality of compressors ; an outdoor heat exchanger connected to the plurality of compressors ; an excessive cooler connected to the outdoor heat exchanger ; a first refrigerant tube communicating with the excessive cooler and the accumulator ; a plurality of bypass tubes respectively connected to the compressors and the first refrigerant tube ; and a plurality of bypass valves provided to the bypass tubes , respectively, wherein, in a state in which at least one of the plurality of compressors is stopped, at least one bypass valve, of the plurality of bypass valves , corresponding to the at least one stopped compressor is configured to be opened.
A ventilation system comprising a breathing apparatus for providing mechanical ventilation to a patient , the breathing apparatus being configured to perform an automated full recruitment manoeuvre, FRM, comprising a recruitment phase and a PEEP titration phase, and, during the PEEP titration phase, to: - gradually decrease the level of PEEP and to deliver a number of breaths at each of a plurality of PEEP levels; characterised in that the breathing apparatus is configured, during the PEEP titration phase, to: - monitor at least one parameter from which an optimal PEEP of the patient may be determined; - predict whether the optimal PEEP will be possible to reliably determine later on during the PEEP titration phase, and - automatically abort the FRM manoeuvre if it is predicted that it will not be possible to reliably determine the optimal PEEP. - gradually decrease the level of PEEP and to deliver a number of breaths at each of a plurality of PEEP levels; - monitor at least one parameter from which an optimal PEEP of the patient may be determined; - predict whether the optimal PEEP will be possible to reliably determine later on during the PEEP titration phase, and - automatically abort the FRM manoeuvre if it is predicted that it will not be possible to reliably determine the optimal PEEP.
A filter for filtering molten metal, characterized in that the filter comprises a refractory material, a binder and an additive, wherein the refractory material is bonded to a open cell porous material through the binder to shape by sintering, wherein the weight ratio of the refractory material, the binder and the additive is 20∼45 wt% of the refractory material: 52∼78 wt% of the binder: 1∼9 wt% of the additive; wherein the total weight ratio of the refractory material, the binder and the additive is 100%; the binder includes carbon-based material and binding material, wherein the carbon-based material is selected from carbon, asphalt, tar or synthetic asphalt, the binding material is selected from alumino silica gel or silica sol; and the refractory material is one or more selected from the group consisting of mullite, corundum or spinel.
A method , implemented by a processing device , comprising: identifying , based on a reference image, a full motion range of a target, wherein the full motion range of the target defines a full internal target volume (ITV) ; identifying a non-target object in a motion image or the reference image; performing a volumetric alignment of the ITV and the non-target object; modifying a non-target to target displacement vector based on the volumetric alignment; and tracking the target based on the modified non-target to target displacement vector. identifying , based on a reference image, a full motion range of a target, wherein the full motion range of the target defines a full internal target volume (ITV) ; identifying a non-target object in a motion image or the reference image; performing a volumetric alignment of the ITV and the non-target object; modifying a non-target to target displacement vector based on the volumetric alignment; and tracking the target based on the modified non-target to target displacement vector.
Method for avoiding a lateral collision of an ego vehicle , having the steps of: - monitoring a lateral region of the ego vehicle , wherein the monitored region is subdivided into at least two subregions and the subregions are at least a prewarning region (V1-V3) and a trigger region (T), - detecting a target vehicle in the prewarning region (V1-V3) and in the trigger region (T), - determining movement parameters of the ego vehicle and of the target vehicle , - controlling the ego vehicle , if the target vehicle is in the trigger region, in such a manner that the distance from the target vehicle is increased, wherein, in contrast to the trigger region, the prewarning region is a larger geometric region in which the target vehicle must have been situated before entering the trigger region, and the ego vehicle is controlled on the basis of a dwell time (t 1 -t 3 ) of the target vehicle in the prewarning region (V1-V3) and in the trigger region (T), wherein the monitored subregions are located in the lane (F2) adjacent to the lane (F1) used by the ego vehicle and/or a lane (F3) adjoining the adjacent lane (F2). - monitoring a lateral region of the ego vehicle , wherein the monitored region is subdivided into at least two subregions and the subregions are at least a prewarning region (V1-V3) and a trigger region (T), - detecting a target vehicle in the prewarning region (V1-V3) and in the trigger region (T), - determining movement parameters of the ego vehicle and of the target vehicle , - controlling the ego vehicle , if the target vehicle is in the trigger region, in such a manner that the distance from the target vehicle is increased, wherein, in contrast to the trigger region, the prewarning region is a larger geometric region in which the target vehicle must have been situated before entering the trigger region, and the ego vehicle is controlled on the basis of a dwell time (t 1 -t 3 ) of the target vehicle in the prewarning region (V1-V3) and in the trigger region (T), wherein the monitored subregions are located in the lane (F2) adjacent to the lane (F1) used by the ego vehicle and/or a lane (F3) adjoining the adjacent lane (F2).
An attaching member to be attached to a blood purification apparatus (B) including peristaltic pumps (P), the attaching member is configured to hold pump tubes (C) to be squeezed in a predetermined direction by the peristaltic pumps (P) for liquid delivery, the attaching member comprising: a body attachable to a predetermined position (Ba) of the blood purification apparatus (B), the body having an attaching surface that faces the predetermined position (Ba), when the attaching member is attached to the blood purification apparatus (B), and inclined surfaces each inclined at a predetermined angle (α) with respect to the attaching surface; and holding portions attached to the body and that are configured to hold the pump tubes (C), wherein the holding portions are provided on the inclined surfaces and are configured to hold the pump tubes (C), such that each of the pump tubes (C) is inclined in a direction in which the pump tube (C) is attached to the respective peristaltic pump (P). a body attachable to a predetermined position (Ba) of the blood purification apparatus (B), the body having an attaching surface that faces the predetermined position (Ba), when the attaching member is attached to the blood purification apparatus (B), and inclined surfaces each inclined at a predetermined angle (α) with respect to the attaching surface; and holding portions attached to the body and that are configured to hold the pump tubes (C), wherein the holding portions are provided on the inclined surfaces and are configured to hold the pump tubes (C), such that each of the pump tubes (C) is inclined in a direction in which the pump tube (C) is attached to the respective peristaltic pump (P).
A conjugate comprising a biomolecule linked to a fatty acid via a linker, wherein the biomolecule is human Growth Differentiation Factor 15 (GDF15), homologs, variants, mutants or fragments thereof or a dimer thereof, and wherein the fatty acid has the following Formula A1: R 1 is CO 2 H; R 2 and R 3 are independently of each other H, OH, CO 2 H, -CH=CH 2 or ―C = CH; n and m are independently of each other an integer between 6 and 30; or an amide, ester or pharmaceutically acceptable salt thereof. R 2 and R 3 are independently of each other H, OH, CO 2 H, -CH=CH 2 or ―C = CH; n and m are independently of each other an integer between 6 and 30; or an amide, ester or pharmaceutically acceptable salt thereof.
A controller for an industrial automation system, having a main module with a housing that includes a base with which it can be fitted on a DIN rail, and with at least two printed circuit boards which are arranged in the housing, one of these printed circuit boards being a backplane bus printed circuit board and one being a main printed circuit board , wherein the main printed circuit board is assigned a heat sink for the cooling of components and wherein the backplane bus printed circuit board provides a backplane bus for at least one expansion module that can be arranged laterally, characterised in that the heat sink is arranged in the housing, is attached to the base and supports at least one of the printed circuit boards .
A vacuum assisted venous drainage, VAVD, system , comprising: a regulator valve assembly configured to facilitate application of vacuum to a reservoir ; a control unit configured to control the regulator valve assembly to facilitate controlling application of the vacuum; at least one pressure sensor coupled to the reservoir and configured to obtain pressure measurements of pressure in the reservoir; characterised by a heating element configured to heat the regulator valve assembly to a target temperature; and at least one temperature sensor configured to determine a temperature of the regulator valve assembly. a regulator valve assembly configured to facilitate application of vacuum to a reservoir ; a control unit configured to control the regulator valve assembly to facilitate controlling application of the vacuum; at least one pressure sensor coupled to the reservoir and configured to obtain pressure measurements of pressure in the reservoir; characterised by a heating element configured to heat the regulator valve assembly to a target temperature; and at least one temperature sensor configured to determine a temperature of the regulator valve assembly.
A storage comprising: a first opening section through which a first article used in a board working machine configured to perform predetermined board work on a board is received or delivered; and a second opening section which is different from the first opening section and through which a second article is received or delivered when reception work or delivery work of the first article is performed through the first opening section , characterized by a moving section configured to move the first and the second articles to a predetermined storage section when the first article is received through the first opening section and when the second article is received through the second opening section , and to move the first article stored in the storage section to the first opening section when the first article is delivered and to move the second article stored in the storage section to the second opening section when the second article is delivered; and a permission section configured to permit the reception work of the first article by an operator through the first opening section , wherein the moving section is configured to perform the delivery work of the second article through the second opening section in parallel with the reception work by the operator through the first opening section when the reception work of the first article by the operator is permitted by the permission section . a first opening section through which a first article used in a board working machine configured to perform predetermined board work on a board is received or delivered; and a second opening section which is different from the first opening section and through which a second article is received or delivered when reception work or delivery work of the first article is performed through the first opening section , characterized by a moving section configured to move the first and the second articles to a predetermined storage section when the first article is received through the first opening section and when the second article is received through the second opening section , and to move the first article stored in the storage section to the first opening section when the first article is delivered and to move the second article stored in the storage section to the second opening section when the second article is delivered; and a permission section configured to permit the reception work of the first article by an operator through the first opening section , wherein the moving section is configured to perform the delivery work of the second article through the second opening section in parallel with the reception work by the operator through the first opening section when the reception work of the first article by the operator is permitted by the permission section .
(Currently Amended) Health food and cosmetics for increasing the amount of apoptosis cells and decreasing the amount of necrosis cells, comprising a sprout-forcing grape seed-derived ingredient consisting of 60 wt. % or more of crudely-purified and sprout-forcing grape seed-derived polyphenol.
A display device for fare collection having integrated barcode scanning comprising: a display configured to display dynamic messages; a first glass layer displaced from the display; a transreflective glass layer positioned between the first glass layer and the display, and displaced from the first glass layer; a scanner positioned such that it: emits light rays reflected by the transreflective glass layer through the first glass layer ; and detects light rays reflected by the transreflective glass layer from the first class layer ; and a processor capable of decoding a barcode scanned by the scanner to determine a proper fare. a display configured to display dynamic messages; a first glass layer displaced from the display; a transreflective glass layer positioned between the first glass layer and the display, and displaced from the first glass layer; a scanner positioned such that it: emits light rays reflected by the transreflective glass layer through the first glass layer ; and detects light rays reflected by the transreflective glass layer from the first class layer ; and emits light rays reflected by the transreflective glass layer through the first glass layer ; and detects light rays reflected by the transreflective glass layer from the first class layer ; and a processor capable of decoding a barcode scanned by the scanner to determine a proper fare.
Apparatus for separating materials with different degrees of flowability, comprising a rotationally driven hollow drum with a perforated peripheral surface, which hollow drum is releasably arranged on a drive element , a continuous press belt which can be pressed against the hollow drum from the outside while wrapping around a portion of the circumference of the hollow drum and which, together with the hollow drum , forms an intake wedge for the material to be pressed, characterised in that the drive element comprises at least one controllably movable holding means which is configured and adapted to controllably lock the hollow drum on the drive element as well as to controllably release the hollow drum from the drive element .