mhurhangee/patent-ind-claim-en huggingface dataset:
A method for computer-implemented determination of sensor positions (PO) in a simulated process (PR) of an automation system, where the simulated process (PR) includes a digital process description (PD) of an automation task (AT) to be executed by a number of components of the automation system, characterized in the process description (PD) including a movement specification (MS) describing the movement of the number of components during the execution of the automation task (AT), and where a digital sensing description (SD) is provided, the sensing description (SD) defining a sensing task (ST) to be performed by a sensor means during the execution of the automation task (AT) and a number of sensor parameters (SP) of the sensor means , the number of sensor parameters (SP) comprising one or more sensing constraints (CO) of the sensor means and the sensor volume (SV) of the sensor means , the method comprising the steps of: a) determining a placement volume (PV) based on the movement specification (MS), where the placement volume (PV) lies within a predetermined area surrounding the number of components and where the placement volume (PV) does not overlap with the number of components and any other object during the execution of the automation task (AT); b) determining a sensor arrangement volume (SAV) defining a volume of sensor positions (PO) of the sensor means , where the sensor volume (SV) of the sensor means lies at each sensor position (PO) within the sensor arrangement volume (SAV) completely inside the placement volume (PV) and where the sensing task (ST) can be performed during the execution of the automation task (AT) at each sensor position (PO) within the sensor arrangement volume (SAV) by the sensor means with regard to the number of sensing constraints (CO). a) determining a placement volume (PV) based on the movement specification (MS), where the placement volume (PV) lies within a predetermined area surrounding the number of components and where the placement volume (PV) does not overlap with the number of components and any other object during the execution of the automation task (AT); b) determining a sensor arrangement volume (SAV) defining a volume of sensor positions (PO) of the sensor means , where the sensor volume (SV) of the sensor means lies at each sensor position (PO) within the sensor arrangement volume (SAV) completely inside the placement volume (PV) and where the sensing task (ST) can be performed during the execution of the automation task (AT) at each sensor position (PO) within the sensor arrangement volume (SAV) by the sensor means with regard to the number of sensing constraints (CO).
Cabinet arrangement having at least two electrical cabinets, in particular interconnected switch cabinets and/or meter cabinets and/or distribution cabinets, which are distributed one beside the other in each case by means of a cabinet-connecting system (1a-1e), wherein, for the mechanical connection of the at least two cabinets (2a-2e, 4a-4e), in particular switch cabinets and/or distribution cabinets and/or meter cabinets, the cabinet-connecting system (1a-1e) comprises at least one first elongate housing-edge-connecting strip (6a-6e), which is connected in an inwardly projecting manner to at least one edge of at least one wall (10a-10d) of the first cabinet (2a-2e), at least one second elongate housing-edge-connecting strip (12a-12e), which is connected in an inwardly projecting manner to at least one edge of at least one wall (16a-16d) of the second cabinet (4a-4e), and at least one elongate connecting element (20a-20c), which is connected to the housing-edge-connecting strips (6a-6e, 12a-12e) in a re-releasable manner from the outside so as to establish a connection between the cabinets (2a-2e, 4a-4e), characterized in that at least one of the housing-edge-connecting strips (6a-6e, 12a-12e) has at least one groove-form aperture in its direction of longitudinal extent, at least one of the walls (10a-10d, 16a-16d) being pushed into said aperture and retained thereby.
A dressing comprising a layer of resilient material , the layer of resilient material having a length direction (LD) and a width direction (WD), which together define a horizontal plane (HP), the horizontal plane HP having a first surface and a second opposed surface, a longitudinal centerline (LC) and a transverse centerline (TC), the layer of resilient material further including one or more pleats formed in at least a portion thereof, each pleat comprising two or more folds , at least one of which folds each pleat shares in common with a neighboring pleat when there are two or more pleats , each pleat further has a length extending in a direction taken along the pleat length, a pleat width, and a lengthwise centerline (PC) bisecting the pleat width, wherein the direction of each pleat length independently makes an angle φ with the longitudinal centerline LC in the horizontal plane HP, and wherein the angle φ has a value that falls within a range specified by the equation: 0 ° < φ < 180°, wherein the length L of the layer of resilient material is extendable between a first length L1 and a second length L2 longer than the first length L1, the two or more folds of each pleat are biased to return the length L of the layer of resilient material , after being extended to the second length L2, from the second length L2 to the first length L1, and characterised in that the dressing further comprises an extensible backing layer attached to the layer of resilient material by discrete adhesive regions disposed on a surface of the layer of resilient material at discrete areas thereof.
A method for decoding a multi-view video, the method comprising: determining motion prediction schemes performed for a current block to be decoded and a co-located block corresponding to the current block, the motion prediction schemes are determined to be one of a long-term prediction, a short-term prediction and an inter-view prediction, wherein the co-located block is located in correspondence with a position of the current block in a picture different from a current picture including the current block; and generating a motion vector of the current block using a motion vector of the co-located block according to the determined motion prediction schemes, and wherein when the inter-view prediction is performed for one of the current block and the co-located block and then the long-term prediction or the short-term prediction is performed for the other block, the motion vector of the current block is generated using a predetermined vector or the motion vector of the co-located block, wherein the co-located block includes a temporal co-located block. determining motion prediction schemes performed for a current block to be decoded and a co-located block corresponding to the current block, the motion prediction schemes are determined to be one of a long-term prediction, a short-term prediction and an inter-view prediction, wherein the co-located block is located in correspondence with a position of the current block in a picture different from a current picture including the current block; and generating a motion vector of the current block using a motion vector of the co-located block according to the determined motion prediction schemes, and wherein when the inter-view prediction is performed for one of the current block and the co-located block and then the long-term prediction or the short-term prediction is performed for the other block, the motion vector of the current block is generated using a predetermined vector or the motion vector of the co-located block, wherein the co-located block includes a temporal co-located block.
A freight container, comprising a container body and corner fittings positioned at each corner of the container body , the container body comprising a bottom portion , a top portion , two side portions and two end portions , wherein: at least one end portion is provided with a locking device , and the positions of the corner fittings and distance therebetween accord with ISO standard; the two end portions are a front end and a rear end; the front end is provided with a corrugated plate which is protruded beyond outer edges of the corner fittings along a longitudinal direction of the container body characterized in that the locking device is protruded beyond outer edges of the corner fittings along the longitudinal direction of the container body ; and the locking device comprises locking bars mounted asymmetrically on two doors of the rear end. at least one end portion is provided with a locking device , and the positions of the corner fittings and distance therebetween accord with ISO standard; the two end portions are a front end and a rear end; the front end is provided with a corrugated plate which is protruded beyond outer edges of the corner fittings along a longitudinal direction of the container body characterized in that the locking device is protruded beyond outer edges of the corner fittings along the longitudinal direction of the container body ; and the locking device comprises locking bars mounted asymmetrically on two doors of the rear end.
An acoustic warning device for a motor vehicle, comprising: • a base part , • a control part , which is movable with respect to the base part between a rest position and a pressed position, • an electrical control detection circuit having at least two switches , each switch being arranged to change state during the passage of the control part from the rest position to the pressed position, the switches normally being closed switches when the control part is in the rest position, characterized : - in that the two switches are mounted in series, - in that each switch comprises two contacts that are isolated from one another and arranged on the base part , and a contact bridge arranged on the control part , the contact bridge being arranged to connect the two contacts when said at least one switch is closed, - in that the control detection circuit comprises a branch forming a connecting arch, comprising all the contacts of each of the switches and adjacent circuit strands each comprising at one end one of the contacts of the same switch, the contacts that are isolated from each other being arranged opposite the contact bridge of said switch , the connecting arch forming an independent part to be attached to the steering wheel. • a base part , • a control part , which is movable with respect to the base part between a rest position and a pressed position, • an electrical control detection circuit having at least two switches , each switch being arranged to change state during the passage of the control part from the rest position to the pressed position, the switches normally being closed switches when the control part is in the rest position, characterized : - in that the two switches are mounted in series, - in that each switch comprises two contacts that are isolated from one another and arranged on the base part , and a contact bridge arranged on the control part , the contact bridge being arranged to connect the two contacts when said at least one switch is closed, - in that the control detection circuit comprises a branch forming a connecting arch, comprising all the contacts of each of the switches and adjacent circuit strands each comprising at one end one of the contacts of the same switch, the contacts that are isolated from each other being arranged opposite the contact bridge of said switch , the connecting arch forming an independent part to be attached to the steering wheel. - in that the two switches are mounted in series, - in that each switch comprises two contacts that are isolated from one another and arranged on the base part , and a contact bridge arranged on the control part , the contact bridge being arranged to connect the two contacts when said at least one switch is closed, - in that the control detection circuit comprises a branch forming a connecting arch, comprising all the contacts of each of the switches and adjacent circuit strands each comprising at one end one of the contacts of the same switch, the contacts that are isolated from each other being arranged opposite the contact bridge of said switch , the connecting arch forming an independent part to be attached to the steering wheel.
A method for using at least one dosimetry device , the method comprising: securing at least one dosimetry device to one or more different locations on or about a person, the at least one dosimetry device comprising a dosimetry processing device with a memory coupled to at least one sensor in a housing , the at least one sensor being configured to derive either a) acceleration readings generated from movement of the person, or b) pressure readings, resulting from an event; obtaining, by the at least one dosimetry device , readings from the at least one sensor; storing, by the at least one dosimetry device , the readings; conducting, by the at least one dosimetry device , an analysis of the stored readings to determine an injury risk assessment comprising providing individualized injury threshold data based on personal medical history data and aggregate medical history data and comparing the individualized injury threshold data to the readings from the at least one sensor; and outputting, by the at least one dosimetry device , at least one of the conducted analysis of the injury risk assessment or the stored readings. securing at least one dosimetry device to one or more different locations on or about a person, the at least one dosimetry device comprising a dosimetry processing device with a memory coupled to at least one sensor in a housing , the at least one sensor being configured to derive either a) acceleration readings generated from movement of the person, or b) pressure readings, resulting from an event; obtaining, by the at least one dosimetry device , readings from the at least one sensor; storing, by the at least one dosimetry device , the readings; conducting, by the at least one dosimetry device , an analysis of the stored readings to determine an injury risk assessment comprising providing individualized injury threshold data based on personal medical history data and aggregate medical history data and comparing the individualized injury threshold data to the readings from the at least one sensor; and outputting, by the at least one dosimetry device , at least one of the conducted analysis of the injury risk assessment or the stored readings.
Aircraft (A) comprising a cockpit, at least one propulsion assembly and a fire-fighting system dedicated to each propulsion assembly, each fire-fighting system comprising two reservoirs (R1, R2) each containing an extinguishing agent, and, associated with each reservoir (R1, R2), a control (C1, C2) that can be actuated by a pilot so as to open the reservoir in order to release the extinguishing agent from the reservoir, a detection assembly configured to detect a fire in the propulsion assembly to which the fire-fighting system is dedicated and emit, if appropriate, a fire alert signal (S_Fire) intended for a visual or audible transducer situated in the cockpit, characterized in that the propulsion assembly comprises a first and a second compartment (K1, K2) each comprising at least one fire zone (Z1, Z2), and in that the fire-fighting system comprises a bypass valve controlled by a localization unit , a set of pipes connecting each reservoir (R1, R2) to each of the fire zones (Z1, Z2) through the bypass valve , the localization unit being configured to detect a fire in the one or more fire zones (Z1, Z2) in the first compartment (K1, K2), and, if appropriate, control the bypass valve so that it adopts a first state, called controlled state, in which the extinguishing agent in a reservoir (R1, R2) is expelled towards the one or more fire zones in the first compartment (K1, K2) after activation of the control (C1, C2) associated with the reservoir (R1, R2), the bypass valve otherwise being controlled so as to adopt a second state, called default state, in which the extinguishing agent in a reservoir (R1, R2) is expelled towards the fire zones in the second compartment (K1, K2) after activation of the control (C1, C2) associated with the reservoir (R1, R2) .
A shaft comprising a shaft body and a generator including a secondary part having a coil and a primary part having a magnet arranged within the secondary part and movable relative to the secondary part characterized in that the generator is provided non-rotatably on the shaft body and the coil is non-rotatably coupled to the shaft body and in that the magnet is movable along a curved longitudinal extension (L) of the coil and deflectable in the circumferential direction of the shaft body , wherein the curved longitudinal extension (L) is radially spaced from a longitudinal axis (A) of the shaft body .
Composition comprising D-mannitol crystals, of which more than 97%, preferentially more than 98% and very preferentially more than 99% of the dry matter thereof consists of D-mannitol and characterized in that the crystals of D-mannitol contain more than 98% by dry weight of delta (δ) polymorph, said delta polymorph, determined by X-ray diffraction, having not completely changed to the β form after 341 days, the composition being stored in a climatized chamber (20°C) and at a controlled degree of relative humidity (75%), and in that said crystals having a volume mean diameter D4,3 greater than 20 μm.
A computer-implemented method for interoperable communication between a server and a client wherein at least one of the server and client is a component of an automation system, the server being associated with a corresponding server data model , and the client being associated with a corresponding client data model , the method comprising: obtaining a reference to the server ; accessing the server via the reference and analyzing data model structure and output of the server to derive, based on at least a first technical specification , one or more element types associated with elements of the server data model ; generating at least a partial mapping between the server data model and the client data model by applying a transformation rule set (TR1) to the server data model , the transformation rule set (TR1) defining for the one or more derived element types (311-a, 311-b) how instances (111-a1, 111-b1) of the one or more derived element types (311-a, 311-b) are to be transformed from the server data model associated with the at least first technical specification into instances (121-a1, 121-a2) of the client data model associated with at least a second technical specification ; and exchanging data between the server and the client using the at least partial mapping . obtaining a reference to the server ; accessing the server via the reference and analyzing data model structure and output of the server to derive, based on at least a first technical specification , one or more element types associated with elements of the server data model ; generating at least a partial mapping between the server data model and the client data model by applying a transformation rule set (TR1) to the server data model , the transformation rule set (TR1) defining for the one or more derived element types (311-a, 311-b) how instances (111-a1, 111-b1) of the one or more derived element types (311-a, 311-b) are to be transformed from the server data model associated with the at least first technical specification into instances (121-a1, 121-a2) of the client data model associated with at least a second technical specification ; and exchanging data between the server and the client using the at least partial mapping .
A facility for growing vegetation, the facility comprising - at least one container for taking aquatic animals and/or aquatic organisms , - at least one hydroponic part , - at least one device for medium circulation , said medium comprising water and/or substance, the facility further comprising at least one unit for distillation, characterized in that the unit for distillation is positioned within the facility, such that it receives medium from the hydroponic part and distills the medium, thereby on the one hand obtaining demineralized water, and on the other hand concentrating a hydroponic nutrient solution in order to direct the demineralized water to the at least one container for the aquatic animals and / or organisms, and to make available the concentrated nutrients for the plants in the hydroponic part - at least one container for taking aquatic animals and/or aquatic organisms , - at least one hydroponic part , - at least one device for medium circulation , said medium comprising water and/or substance, the facility further comprising at least one unit for distillation, characterized in that the unit for distillation is positioned within the facility, such that it receives medium from the hydroponic part and distills the medium, thereby on the one hand obtaining demineralized water, and on the other hand concentrating a hydroponic nutrient solution in order to direct the demineralized water to the at least one container for the aquatic animals and / or organisms, and to make available the concentrated nutrients for the plants in the hydroponic part
A method for performing ultrasound tests on a plurality of samples arranged in a well plate having a plurality of substantially cup-shaped wells surrounded by accessible spaces delimited by walls , comprising the steps of: • providing a device for ultrasound tests comprising a bath filled-up with a liquid for the ultrasound transmission at controlled temperature, one or more transducers arranged at the bottom of such bath , immersed in the transmission liquid, supporting means which supports said well plate at the free surface of the transmission liquid of the bath ; • pouring a filling material into said accessible spaces , thereby eliminating air gaps or air bubbles, and letting it solidify; • arranging samples to be subjected to test in the respective wells , filled up with a corresponding aqueous solution which substantially has the same sound transmission speed of the transmission liquid in the bath ; • arranging covering means on the well plate and focusing on one or more target samples a beam of ultrasounds. wherein said filling material is an acoustic insulator, not reflecting nor transmitting acoustic waves. • providing a device for ultrasound tests comprising a bath filled-up with a liquid for the ultrasound transmission at controlled temperature, one or more transducers arranged at the bottom of such bath , immersed in the transmission liquid, supporting means which supports said well plate at the free surface of the transmission liquid of the bath ; • pouring a filling material into said accessible spaces , thereby eliminating air gaps or air bubbles, and letting it solidify; • arranging samples to be subjected to test in the respective wells , filled up with a corresponding aqueous solution which substantially has the same sound transmission speed of the transmission liquid in the bath ; • arranging covering means on the well plate and focusing on one or more target samples a beam of ultrasounds.