mhurhangee/ep-ind-claims huggingface dataset:
A system for recognizing animals in a detection zone wherein the animals are provided with a label (6.i) that responds by transmitting a return signal with information when the label is introduced into an electromagnetic interrogation field, provided with at least a transmitting and receiving system for transmitting the electromagnetic interrogation field in the detection zone and for receiving a return signal from a label (6.i) present in the detection zone, wherein the transmitting and receiving system is provided with a plurality of antennas (8.i) for receiving a return signal from at least one label (6.i) present in the detection zone, wherein the antennas are designed and arranged to discretely receive electromagnetic signals respectively coming from mutually different subzones (4.i), wherein the subzones in combination form the detection zone wherein the transmitting and receiving system is provided with a signal processing unit wherein the transmitting and receiving system generates a receiving signal per antenna (8.i) and/or per group of antennas, wherein the receiving signals are processed in combination by the signal processing unit for obtaining the information from the return signal of at least one label (6.i) present in the detection zone wherein the transmitting and receiving system is provided with a multiplexer which is connected with each of the antennas (8.i) for each time selecting one antenna or one group of antennas from the plurality of antennas for successively obtaining the different receiving signals per antenna or per group of antennas which are supplied to the signal processing unit to be processed further wherein the transmitting and receiving system is provided with at least one transmitter (16, 16') for generating the interrogation field, characterised in that, the system is further provided with at least one transmitting antenna (18, 18') which is connected with the at least one transmitter (16, 16') for generating the interrogation field wherein the at least one transmitting antenna is not connected to the multiplexer..
A communication system comprising at least one smart network interface card, NIC, provided with a logic/programmable processor and a local memory, and a computing element, wherein a communication bus is used to connect said smart NIC and said computing element to enable forwarding data there-between, wherein said smart NIC is configured to receive a data packet, store said received data packet at the local memory, z extract data relevant for taking forwarding/processing related decisions, wherein the extracted data includes one or more descriptors, wherein said one or more descriptors is one or more members selected from among a group that consists of: a memory location where said data packet was stored, a timestamp, statistics, a packet validity flag, and forward the one or more descriptors to said computing element along said communication bus, thereby forwarding less than all of said data packet to said computing element; wherein the computing element is configured to process said descriptors, and to return the processed descriptors to the smart NIC, wherein said communication system is further configured to retrieve the data packet that has been stored at the smart NIC local memory, to re-write the retrieved data packet's header according to the processed descriptors, and to forward the data packet via an egress port in accordance to the re-written header. wherein said smart NIC is configured to receive a data packet, store said received data packet at the local memory, z extract data relevant for taking forwarding/processing related decisions, wherein the extracted data includes one or more descriptors, wherein said one or more descriptors is one or more members selected from among a group that consists of: a memory location where said data packet was stored, a timestamp, statistics, a packet validity flag, and forward the one or more descriptors to said computing element along said communication bus, thereby forwarding less than all of said data packet to said computing element; wherein the computing element is configured to process said descriptors, and to return the processed descriptors to the smart NIC, wherein said communication system is further configured to retrieve the data packet that has been stored at the smart NIC local memory, to re-write the retrieved data packet's header according to the processed descriptors, and to forward the data packet via an egress port in accordance to the re-written header.
A battery module, comprising a side plate and an end plate, said end plate comprising a body and a connector connected to the body, wherein the body is fixedly connected to the side plate for the battery module through the connector; the connector is provided with a light shielding part, and the light shielding part is located on a side that is of the connector and that faces the side plate, and located between the connector and the side plate, the body is provided with a mounting slot, and the mounting slot is through along a height direction of the battery module; the connector is plugged in the mounting slot, the connector comprises a plugging part and a connecting part; the plugging part extends along the height direction of the battery module and fits with the mounting slot snugly; the connecting part is fixedly connected to the side plate for the battery module; and the light shielding part is located between the connecting part and the side plate, the connecting part comprises a first sheet and a second sheet, and the light shielding part comprises a terraced part located between the first sheet and the second sheet, and the light shielding part further comprises an elastomer, and the elastomer is elastically supported between the connecting part and the side plate, the side plate is fixedly welded to the connector, and wherein the terraced part is implemented by a thickness difference between the first sheet and the second sheet, or the terraced part is implemented by staggering the first sheet and the second sheet that are of the same thickness. the body is fixedly connected to the side plate for the battery module through the connector; the connector is provided with a light shielding part, and the light shielding part is located on a side that is of the connector and that faces the side plate, and located between the connector and the side plate, the body is provided with a mounting slot, and the mounting slot is through along a height direction of the battery module; the connector is plugged in the mounting slot, the connector comprises a plugging part and a connecting part; the plugging part extends along the height direction of the battery module and fits with the mounting slot snugly; the connecting part is fixedly connected to the side plate for the battery module; and the light shielding part is located between the connecting part and the side plate, the connecting part comprises a first sheet and a second sheet, and the light shielding part comprises a terraced part located between the first sheet and the second sheet, and the light shielding part further comprises an elastomer, and the elastomer is elastically supported between the connecting part and the side plate, the side plate is fixedly welded to the connector, and wherein the terraced part is implemented by a thickness difference between the first sheet and the second sheet, or the terraced part is implemented by staggering the first sheet and the second sheet that are of the same thickness.
Foaming tool (1, 11, 17) for processing foamable plastic particles, having at least one portion of a cavity (3, 13, 18) forming region (2, 12, 19), wherein at least one part (4, 14, 20) of a surface structure (5, 15, 21) of the cavity (3, 13, 18) forming region (2, 12, 19) is produced by an additive method, wherein the surface structure (5, 15, 21) at least one elevation and / or at least one recess in the surface of the foaming tool (1, 11, 17) forms or comprises such, characterized in that the at least one part (4, 14, 20) has at least two sub-areas (8, 9, 22 - 24) with different surface structure (5, 15, 21), wherein the surface structure (5, 15, 21) alternately arranged elevations and recesses.
Method for adjusting vehicle lighting when driving on a construction site, a light image cast into a surroundings by at least one vehicle headlight being adjusted from an upper (3.1) light field referred to as a high beam and a lower light field (3.2) referred to as a low beam when driving on the construction site is detected, by changing a light intensity with which the light image is generated, the light intensity with which the low beam is emitted being increased to a specified value when driving on the construction site, characterized in that when an exit is detected, the focus of the light image is shifted to a surrounding region corresponding to the exit, or the area occupied by the light image is expanded so that the surrounding region corresponding to the exit is also illuminated at least in part. the light intensity with which the low beam is emitted being increased to a specified value when driving on the construction site, characterized in that when an exit is detected, the focus of the light image is shifted to a surrounding region corresponding to the exit, or the area occupied by the light image is expanded so that the surrounding region corresponding to the exit is also illuminated at least in part.
, A system comprising: a machine configured for using a plurality of different tools for providing and/or assembling at least one component of lead acid batteries with an electronic controller of at least some of its variable operating parameters for a specific tool installed in the machine and a tool for the machine, wherein the machine is one of a battery grid casting, grid reforming, grid cutting, grid trimming, grid pasteing, paste ingredients mixing, drying oven, plate stacking, or robotic palletizing machine, characterized in that the system comprises a tag associated with the tool and containing stored data of desired values for at least some of the operating parameters for the machine in which the tool will be used, a reader of at least some of the stored data on the tag associated with the tool; and the machine electronic controller is configured to use at least some of the data of the tool tag read by the reader to set the desired value of at least some of the operating parameters of the machine for use of the tool, wherein the tag of the tool has all of the data and information needed for proper programming and operation of the machine in which it is used and/or for synchronization of any other machine or line dependent upon the component produced by the machine using the specific tool. a machine configured for using a plurality of different tools for providing and/or assembling at least one component of lead acid batteries with an electronic controller of at least some of its variable operating parameters for a specific tool installed in the machine and a tool for the machine, wherein the machine is one of a battery grid casting, grid reforming, grid cutting, grid trimming, grid pasteing, paste ingredients mixing, drying oven, plate stacking, or robotic palletizing machine, characterized in that the system comprises a tag associated with the tool and containing stored data of desired values for at least some of the operating parameters for the machine in which the tool will be used, a reader of at least some of the stored data on the tag associated with the tool; and the machine electronic controller is configured to use at least some of the data of the tool tag read by the reader to set the desired value of at least some of the operating parameters of the machine for use of the tool, wherein the tag of the tool has all of the data and information needed for proper programming and operation of the machine in which it is used and/or for synchronization of any other machine or line dependent upon the component produced by the machine using the specific tool.
Method for modifying the consumption of a heat pump comprising at least one compressor for compressing heat-transfer fluid powered by an electrical network and at least one control module controlling the power of the heat pump, a cutoff member being capable of cutting off the electrical power supply of said compressor, the method being characterised in that it comprises steps of: (a) Calculating, by a management element, a power available for the heat pump depending on at least one instantaneous power of the heat pump and a reference maximum power associated with the cutoff member; (b) If said reference maximum power associated with the cutoff member is exceeded, calculating, by the management element, a time prior to implementation of a cutoff by the cutoff member depending on said reference maximum power; (c) Gradually limiting, by the control module, the instantaneous power of the heat pump such that, upon expiry of said time prior to implementation of a cutoff, the instantaneous power of the heat pump is less than or equal to said power available for the heat pump. (a) Calculating, by a management element, a power available for the heat pump depending on at least one instantaneous power of the heat pump and a reference maximum power associated with the cutoff member; (b) If said reference maximum power associated with the cutoff member is exceeded, calculating, by the management element, a time prior to implementation of a cutoff by the cutoff member depending on said reference maximum power; (c) Gradually limiting, by the control module, the instantaneous power of the heat pump such that, upon expiry of said time prior to implementation of a cutoff, the instantaneous power of the heat pump is less than or equal to said power available for the heat pump.
A coil lifter for moving a coil having a core hole in a center region thereof by using a sling, the coil lifter comprising: a lifter frame comprising a first sling winding unit and a second sling winding unit; a pair of lifting arms (120, 130) extending from the lifter frame toward both widthwise sides of the coil; and characterised in that a sling connecting unit is provided on the pair of lifting arms (120, 130) to connect a sling of the first sling winding unit to the second sling winding unit through the core hole of the coil; wherein the sling connecting unit comprises a first variable shoe provided on an end of one of the pair of lifting arms in a rotatable and extendable manner so as to hook the sling of the first sling winding unit and move the sling to a predetermined position in the core hole of the coil; and a second variable shoe is provided on an end of the other of the pair of lifting arms in a rotatable and extendable manner so as to hook the sling of the first sling winding unit placed in the core hole by the first variable shoe and connect the sling of the first sling winding unit to a sling of the second sling winding unit. a lifter frame comprising a first sling winding unit and a second sling winding unit; a pair of lifting arms (120, 130) extending from the lifter frame toward both widthwise sides of the coil; and characterised in that a sling connecting unit is provided on the pair of lifting arms (120, 130) to connect a sling of the first sling winding unit to the second sling winding unit through the core hole of the coil; wherein the sling connecting unit comprises a first variable shoe provided on an end of one of the pair of lifting arms in a rotatable and extendable manner so as to hook the sling of the first sling winding unit and move the sling to a predetermined position in the core hole of the coil; and a second variable shoe is provided on an end of the other of the pair of lifting arms in a rotatable and extendable manner so as to hook the sling of the first sling winding unit placed in the core hole by the first variable shoe and connect the sling of the first sling winding unit to a sling of the second sling winding unit.
An object detecting arrangement configured to detect objects (3.1, 3.2, 3.3) in a field (5.1, 5.2, 5.3) surrounding a vehicle hosting said arrangement, where said arrangement comprises: - an imaging unit (9.1, 9.2, 9.3) configured to capture images of said field (5.1, 5.2, 5.3), where said imaging unit (9.1, 9.2, 9.3) is arranged at said vehicle such that said field (5.1, 5.2, 5.3) is in a direction of at least one of a side of said vehicle, and a rear of said vehicle, where said direction of the field (5.1, 5.2) at the side of said vehicle is essentially perpendicular to an intended direction of travel (dt) of said vehicle, and where said arrangement further comprises - a processing unit configured to detect objects (3.1, 3.2, 3.3) in said field (5.1, 5.2, 5.3) by processing images captured by said imaging unit (9.1, 9.2, 9.3) and to determine an object detecting capability representative of a capability of said processing unit to detect objects (3.1, 3.2, 3.3) in said field (5.1, 5.2, 5.3), - an illumination unit (13.1, 13.2, 13.3) configured to illuminate said field (5.1, 5.2, 5.3) when the object detecting capability is lower than a first predetermined threshold value; characterized in that said processing unit is further configured to determine the object detecting capability by determining a distance (d) from said vehicle to an object (3.2) in said field (5.1), and wherein said object detecting capability is based on said distance (d) such that the object detecting capability is lower in case of a greater distance (d) to the object (3.2) than in case of a shorter distance (d) to the object (3.2). - an imaging unit (9.1, 9.2, 9.3) configured to capture images of said field (5.1, 5.2, 5.3), where said imaging unit (9.1, 9.2, 9.3) is arranged at said vehicle such that said field (5.1, 5.2, 5.3) is in a direction of at least one of a side of said vehicle, and a rear of said vehicle, where said direction of the field (5.1, 5.2) at the side of said vehicle is essentially perpendicular to an intended direction of travel (dt) of said vehicle, and where said arrangement further comprises - a processing unit configured to detect objects (3.1, 3.2, 3.3) in said field (5.1, 5.2, 5.3) by processing images captured by said imaging unit (9.1, 9.2, 9.3) and to determine an object detecting capability representative of a capability of said processing unit to detect objects (3.1, 3.2, 3.3) in said field (5.1, 5.2, 5.3), - an illumination unit (13.1, 13.2, 13.3) configured to illuminate said field (5.1, 5.2, 5.3) when the object detecting capability is lower than a first predetermined threshold value;
A scanning system comprising: an insertion post (12, 112, 212, 312) for inserting an implant into a jaw bone, wherein the insertion post (12, 112, 212, 312) comprises the following: a first drive portion for transmitting a torque to the insertion post, a second drive portion for transmitting a torque from the insertion post (12, 112, 212, 312) to the implant, wherein the insertion post (12, 112, 212, 312) is detachably connected to the implant in such a way that, during the connection, there is an unambiguous coherence between the position of the implant and the position of the insertion post (12, 112, 212, 312), and wherein the insertion post (12, 112, 212, 312) comprises a scan body portion (14, 114, 214) which allows determination of the position of the insertion post (12, 112, 212, 312) using an intraoral scanner, wherein the scan system further comprises a memory or a memory medium for a digital data set in which the characteristic features of the scan body portion (14, 114, 214) are stored which permit determination of the position of the scan body portion (14, 114, 214) in an intraoral scan. an insertion post (12, 112, 212, 312) for inserting an implant into a jaw bone, wherein the insertion post (12, 112, 212, 312) comprises the following: a first drive portion for transmitting a torque to the insertion post, a second drive portion for transmitting a torque from the insertion post (12, 112, 212, 312) to the implant, wherein the insertion post (12, 112, 212, 312) is detachably connected to the implant in such a way that, during the connection, there is an unambiguous coherence between the position of the implant and the position of the insertion post (12, 112, 212, 312), and wherein the insertion post (12, 112, 212, 312) comprises a scan body portion (14, 114, 214) which allows determination of the position of the insertion post (12, 112, 212, 312) using an intraoral scanner, a first drive portion for transmitting a torque to the insertion post, a second drive portion for transmitting a torque from the insertion post (12, 112, 212, 312) to the implant, wherein the insertion post (12, 112, 212, 312) is detachably connected to the implant in such a way that, during the connection, there is an unambiguous coherence between the position of the implant and the position of the insertion post (12, 112, 212, 312), and wherein the insertion post (12, 112, 212, 312) comprises a scan body portion (14, 114, 214) which allows determination of the position of the insertion post (12, 112, 212, 312) using an intraoral scanner, wherein the scan system further comprises a memory or a memory medium for a digital data set in which the characteristic features of the scan body portion (14, 114, 214) are stored which permit determination of the position of the scan body portion (14, 114, 214) in an intraoral scan.
Joining machine equipped for manufacturing a bag for medical purposes, having a station generating economic benefits for a film, having an opening and closing processing tool at the station generating economic benefit, the film being conveyed in a machine direction (2,35) through the joining machine and, for introducing the film into the opened machining tool, a driven inserting device is provided, which comprises a gripper (4, 5, 10, 11, 21, 22, 39, 40), which is devised to move the film during the feeding operation in a gripping area and move away from the film with a removal movement, characterized in that the joining machine is set up to add a benefit at least partially to the gripping area, in that the joining machine is configured to process that the gripping area, in order to process the film over or around the gripping area, so that the gripping area does not become scrap, at least not completely, in that the joining machine is so configured so as to produce a peripheral weld of the bag at least around a portion of the gripping area and / or a welded seam extending through the gripping area.
A photovoltaic module comprising a plurality of photovoltaic cells electrically connected in series via connection means comprising electrical conductors, characterised in that each connection means comprises an optical device having a reflection-diffractive or transmission-diffractive optical behaviour, and each connection means consists of a sheet formed from a material that is transparent to incident rays containing at least one network of electrical conductor wires.
An equipment for transversal perforations of varying lengths on continuous forms in movement, comprising a blade support with at least a perforating blade, a blade contrast having at least one projecting profile of contrast for the perforating blade, a blade servomechanism, and a contrast servomechanism, in which the blade support and the blade contrast have possibility of rotation transversally to a direction of movement of the form, and in which the blade servomechanism and the contrast servomechanism rotate the support blade and the blade contrast to carry the perforating blade in interference with a projecting profile, in synchronism with the form, wherein the perforating blade has a length suitable for the perforations of maximum length of the form; and characterised by the fact that the projecting profile has sectors with axial extensions increasing or decreasing in dependence on their angular positions (φ), and in which the contrast servomechanism is settable for selecting an angular phase (φ1, φ2, φ3) of the blade contrast, such to positioning, for the contrast with a blade (39a,), a sector of the projecting profile having axial extension equal to the requested length (L1, L2, L3) of the perforation.