mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising: - a housing having an opening; - an electrochemical cell disposed in the housing, wherein the electrochemical cell comprises a first cell surface having electrode terminals and a second cell surface substantially opposite the first cell surface; - a heat sink integral with the housing and disposed substantially opposite the opening of the housing; and - a thermally conductive adhesive bonded to the second cell surface and a heat sink surface that is facing the second cell surface, wherein the thermally conductive adhesive comprises a bonding shear strength and a bonding tensile strength between the electrochemical cell and the heat sink of between 5 megaPascals (MPa) and 50 MPa at 25 degrees Celsius. - a housing having an opening; - an electrochemical cell disposed in the housing, wherein the electrochemical cell comprises a first cell surface having electrode terminals and a second cell surface substantially opposite the first cell surface; - a heat sink integral with the housing and disposed substantially opposite the opening of the housing; and - a thermally conductive adhesive bonded to the second cell surface and a heat sink surface that is facing the second cell surface, wherein the thermally conductive adhesive comprises a bonding shear strength and a bonding tensile strength between the electrochemical cell and the heat sink of between 5 megaPascals (MPa) and 50 MPa at 25 degrees Celsius.
A thermal management device, configured to be used in a battery box, the device comprising an extruded plate, extending, along a longitudinal axis, between a front face and a rear face, the extruded plate including: - a first channel, extending between the front face and the rear face, between a first front aperture and a first rear aperture; - a second channel, extending between the front face and the rear face, between a second front aperture and a second rear aperture; - the first channel and the second channel being configured to form a fluid circuit in which a coolant may flow; - at least one encapsulation cavity, extending between the front face and the rear face, the encapsulation cavity being configured to encapsulate a phase change material; the device also including: - an inlet/outlet cap, including at least one plug, inserted into at least one encapsulation cavity, at the front face; - a diverting cap (50,50'), including at least one plug, inserted into at least one encapsulation cavity, at the rear face; - the diverting cap forming a connecting channel (55,55 s,55 i), connecting the first rear aperture to the second rear aperture, so as to connect the first channel and the second channel, such that the coolant can flow between the first front aperture and the second front aperture, successively through the first channel, the connecting channel (55,55 s,55 i) and the second channel. - a first channel, extending between the front face and the rear face, between a first front aperture and a first rear aperture; - a second channel, extending between the front face and the rear face, between a second front aperture and a second rear aperture; - the first channel and the second channel being configured to form a fluid circuit in which a coolant may flow; - at least one encapsulation cavity, extending between the front face and the rear face, the encapsulation cavity being configured to encapsulate a phase change material; - an inlet/outlet cap, including at least one plug, inserted into at least one encapsulation cavity, at the front face; - a diverting cap (50,50'), including at least one plug, inserted into at least one encapsulation cavity, at the rear face; - the diverting cap forming a connecting channel (55,55 s,55 i), connecting the first rear aperture to the second rear aperture, so as to connect the first channel and the second channel, such that the coolant can flow between the first front aperture and the second front aperture, successively through the first channel, the connecting channel (55,55 s,55 i) and the second channel.
A system for identifying vortices in an electro-anatomical vector map of a patient heart comprising multiple vectors (55, 55A, 55B) indicative of electrical signals propagating over a surface of the patient heart, the system comprising: a processor, which is configured to: receive, from a catheter comprising a distal end assembly having multiple sensing electrodes, one or more signals indicative of the electrical signals propagating over the surface of the patient heart; produce the electro-anatomical vector map based on the one or more signals; define one or more closed loops (52, 54) on the electro-anatomical vector map; and for each closed loop, identify a plurality of the vectors that cross the closed loop, calculate a vector sum of the identified vectors, and decide based on the vector sum whether a vortex is located inside the closed loop; and an output device, which is configured to indicate one or more identified vortices to a user. a processor, which is configured to: receive, from a catheter comprising a distal end assembly having multiple sensing electrodes, one or more signals indicative of the electrical signals propagating over the surface of the patient heart; produce the electro-anatomical vector map based on the one or more signals; define one or more closed loops (52, 54) on the electro-anatomical vector map; and for each closed loop, identify a plurality of the vectors that cross the closed loop, calculate a vector sum of the identified vectors, and decide based on the vector sum whether a vortex is located inside the closed loop; and receive, from a catheter comprising a distal end assembly having multiple sensing electrodes, one or more signals indicative of the electrical signals propagating over the surface of the patient heart; produce the electro-anatomical vector map based on the one or more signals; define one or more closed loops (52, 54) on the electro-anatomical vector map; and for each closed loop, identify a plurality of the vectors that cross the closed loop, calculate a vector sum of the identified vectors, and decide based on the vector sum whether a vortex is located inside the closed loop; and an output device, which is configured to indicate one or more identified vortices to a user.
A chuck (9, 9') comprising: a first section comprising a well and a filament channel, wherein the first section having a frustoconical shape, wherein the filament channel having an opening at a bottom surface of the well, wherein a diameter of the bottom surface is larger than a diameter of the filament channel, and the bottom surface of the well is substantially flat and directly connected to the opening of the filament channel; and a second section proximate the first section, the second section having an electrode channel. a first section comprising a well and a filament channel, wherein the first section having a frustoconical shape, wherein the filament channel having an opening at a bottom surface of the well, wherein a diameter of the bottom surface is larger than a diameter of the filament channel, and the bottom surface of the well is substantially flat and directly connected to the opening of the filament channel; and a second section proximate the first section, the second section having an electrode channel.
A process for the obtainment of sweet whey from acid whey comprising or consisting of the following steps: (a) providing acid whey; (b) providing a rinsing solution; (c) providing a bipolar electrodialysis device having at least three cells arranged side by side and connected by semi-permeable membranes; (d) applying the acid whey to the central cell; (e) applying the rinsing solution to the two cells flanking the central cell; (f) bipolar electrodialysis of the sweet whey in the middle cell to obtain a deacidified diluate; and (g) enriching the separated lactic acid in the rinsing solution which is circulated, wherein the rinse solution is subjected to reverse osmosis to obtain an aqueous concentrate of lactic acid and minerals. (a) providing acid whey; (b) providing a rinsing solution; (c) providing a bipolar electrodialysis device having at least three cells arranged side by side and connected by semi-permeable membranes; (d) applying the acid whey to the central cell; (e) applying the rinsing solution to the two cells flanking the central cell; (f) bipolar electrodialysis of the sweet whey in the middle cell to obtain a deacidified diluate; and (g) enriching the separated lactic acid in the rinsing solution which is circulated,
An unmanned aerial vehicle, comprising: a fuselage; primary wings (102, 102) extending from the fuselage and providing lift to the UAV while the UAV is in horizontal flight; and wing-plate assemblies (200, 200) that extend essentially perpendicular from the primary wings (102, 102), each wing-plate assembly (200, 200) including a set of propulsion units (202), each propulsion unit (202) including (i) a housing, (ii) a motor disposed within that housing, and (iii) a propeller coupled to that motor, the wing-plate assemblies (200, 200) providing lift to the UAV during vertical flight and improving flight efficiency during horizontal flight, characterized in that each wing-plate assembly (200, 200) extends from the distal end of the respective primary wing (102, 102) and in that each propulsion unit (202) includes: a rechargeable battery housed within the housing of that propulsion unit, the rechargeable battery being constructed and arranged to power the motor of that propulsion unit (202) during takeoff and landing of the UAV. a fuselage; primary wings (102, 102) extending from the fuselage and providing lift to the UAV while the UAV is in horizontal flight; and wing-plate assemblies (200, 200) that extend essentially perpendicular from the primary wings (102, 102), each wing-plate assembly (200, 200) including a set of propulsion units (202), each propulsion unit (202) including (i) a housing, (ii) a motor disposed within that housing, and (iii) a propeller coupled to that motor, the wing-plate assemblies (200, 200) providing lift to the UAV during vertical flight and improving flight efficiency during horizontal flight, characterized in that each wing-plate assembly (200, 200) extends from the distal end of the respective primary wing (102, 102) and in that each propulsion unit (202) includes: a rechargeable battery housed within the housing of that propulsion unit, the rechargeable battery being constructed and arranged to power the motor of that propulsion unit (202) during takeoff and landing of the UAV.
A method for supplicant authentication, the method being performed by the supplicant and comprising: authenticating, with an authentication server, a user associated with the supplicant; receiving, from the authentication server, a machine authentication protected access credential comprising a device key and an encrypted ticket, the encrypted ticket comprising the device key and being encrypted with a private key for the authentication server; caching the machine authentication protected access credential; and performing a subsequent authentication, the subsequent authentication comprising sending the encrypted ticket to the authentication server and proving the supplicant's ownership of the device key to gain limited access to a network without user input. authenticating, with an authentication server, a user associated with the supplicant; receiving, from the authentication server, a machine authentication protected access credential comprising a device key and an encrypted ticket, the encrypted ticket comprising the device key and being encrypted with a private key for the authentication server; caching the machine authentication protected access credential; and performing a subsequent authentication, the subsequent authentication comprising sending the encrypted ticket to the authentication server and proving the supplicant's ownership of the device key to gain limited access to a network without user input.
Device for automatically processing a carcass (1, 10,30) of a slaughtered animal suspended from the hind legs, comprising: - automatically controlled drive means for handling a slaughtering processing tool; - a rotatable cutting blade (20, 35) carried by the automatically controlled driving means to be displaced in substantially the plane of symmetry of the carcass (1, 10,30) for opening the abdominal wall of the carcass (1, 10,30); and - a cleaving blade (23, 32) carried by the automatically controlled driving means to split the pubic bone of the carcass (1, 10,30). - automatically controlled drive means for handling a slaughtering processing tool; - a rotatable cutting blade (20, 35) carried by the automatically controlled driving means to be displaced in substantially the plane of symmetry of the carcass (1, 10,30) for opening the abdominal wall of the carcass (1, 10,30); and - a cleaving blade (23, 32) carried by the automatically controlled driving means to split the pubic bone of the carcass (1, 10,30).
Device comprising several solar panels which solar panels are mutually hinge-mounted so as to form a composed solar panel in such a way that the composed solar panel can be folded from a folded-out state into a folded state in which the solar panels are adjacent to one another and in that the composed solar panel can be unfolded from a folded state into a folded-out state in which the solar panels extend in a common plane (AA'), whereby the device is further provided with a frame which is hinge-mounted to the composed solar panel and which is formed of two frame portions (16,17) which can be disassembled, more specifically a first frame portion and a second frame portion, characterised in that the second frame portion is provided with adjusting means which connect the second frame portion concerned to the composed solar panel and whereby both frame portions (16,17) contain a base extending in a plane and contain a number of standing ribs and respectively, extending crosswise to the corresponding base, whereby in a disassembled condition of the frame, each frame portion (16,17) forms a supporting structure for the solar panel, which can be unfolded into its folded-out state by unfolding the solar panels in relation to one another, and whereby the composed solar panel can be rotated as a whole in the folded-out state in relation to the first frame portion with which it is hinge-mounted so as to orient it in a horizontal position and/or in random oblique positions, whereby the frame, in an assembled condition, forms a beam-shaped cage around the folded, composed solar panel, whereby the base forms either the bottom surface or the upper surface respectively of the beam-shaped cage, at least when the frame is assembled into a cage.
An antistatic microcontact printing stamp, comprising a cured product of an addition reaction cure silicone rubber composition comprising: linear organopolysiloxane containing at least two aliphatic unsaturated monovalent hydrocarbon groups per molecule, organohydrogenpolysiloxane containing at least two silicon-bonded hydrogen atoms per molecule, addition reaction catalyst, reinforcing resin, selected from organopolysiloxane resins of three-dimensional network structure containing R 1 3 SiO 1/2 siloxane units and SiO 4/2 siloxane units, wherein R 1 independently are substituted or unsubstituted monovalent hydrocarbon groups, and wherein the molar ratio R 1 3 Si-O 1/2/ SiO 4/2 is from 0.3 to 2 and ionic conducting antistatic agent, wherein the ionic conducting antistatic agent is a lithium salt. linear organopolysiloxane containing at least two aliphatic unsaturated monovalent hydrocarbon groups per molecule, organohydrogenpolysiloxane containing at least two silicon-bonded hydrogen atoms per molecule, addition reaction catalyst, reinforcing resin, selected from organopolysiloxane resins of three-dimensional network structure containing R 1 3 SiO 1/2 siloxane units and SiO 4/2 siloxane units, wherein R 1 independently are substituted or unsubstituted monovalent hydrocarbon groups, and wherein the molar ratio R 1 3 Si-O 1/2/ SiO 4/2 is from 0.3 to 2 and ionic conducting antistatic agent, wherein the ionic conducting antistatic agent is a lithium salt.
A method of processing a signal for transmission, the method being characterised by: determining a quality of a first portion of the signal; and if the quality satisfies a threshold criterion then aggregating a representation of the first portion of the signal with a representation of a subsequent portion of the signal. determining a quality of a first portion of the signal; and if the quality satisfies a threshold criterion then aggregating a representation of the first portion of the signal with a representation of a subsequent portion of the signal.
A fir tree coupling for a gas turbine blade to disk interface comprising: a load beam having a longitudinal axis, a base, a first side, and a second side, a plurality of teeth running parallel to the longitudinal axis and disposed on the first side and the second side of the load beam, wherein the load beam comprises a top surface; and characterised by: first, second and third cooling passages passing through the load beam from the base to the top surface; first, second, third and fourth rails (204;217,218) extending below the base and running across the base of the load beam between the first side and the second side, wherein the first cooling passage is disposed between the first and second rails (204;217,218), the second cooling passage is disposed between the second and third rails (204;217,218) and the third cooling passage is disposed between the third and fourth rails (204;217,218). a load beam having a longitudinal axis, a base, a first side, and a second side, a plurality of teeth running parallel to the longitudinal axis and disposed on the first side and the second side of the load beam, wherein the load beam comprises a top surface; and characterised by: first, second and third cooling passages passing through the load beam from the base to the top surface; first, second, third and fourth rails (204;217,218) extending below the base and running across the base of the load beam between the first side and the second side, wherein the first cooling passage is disposed between the first and second rails (204;217,218), the second cooling passage is disposed between the second and third rails (204;217,218) and the third cooling passage is disposed between the third and fourth rails (204;217,218). first, second and third cooling passages passing through the load beam from the base to the top surface; first, second, third and fourth rails (204;217,218) extending below the base and running across the base of the load beam between the first side and the second side, wherein the first cooling passage is disposed between the first and second rails (204;217,218), the second cooling passage is disposed between the second and third rails (204;217,218) and the third cooling passage is disposed between the third and fourth rails (204;217,218).
A method for transmitting and receiving, by a user equipment, UE, data in a wireless communication system, the method comprising: receiving, from a first transmission and reception point, TRP, first control information based on a first control resource set, CORESET, of a first CORESET group; receiving, from a second TRP, second control information based on a second CORESET of a second CORESET group; respectively, receiving, from the first TRP and the second TRP, a first data scheduled based on the first control information and a second data scheduled based on the second control information; and transmitting, to the first TRP and/or the second TRP, first feedback information corresponded to the first data and second feedback information corresponded to the second data, wherein an index of the first CORESET group and an index of the second CORESET group have different values, wherein each of the first control information and the second control information includes a Downlink Assignment Index, DAI, field, and wherein a value of the DAI field is configured based on i) the index of the first CORESET group and the index of the second CORESET group, ii) an index of a serving cell and iii) an index of monitoring occasion in which each control information is to be transmitted, wherein, based on that the first control information and the second control information are received from a same cell having a same serving cell index at a same monitoring occasion, the value of the DAI field is configured in ascending order of the index of the first CORESET group and the index of the second CORESET group. receiving, from a first transmission and reception point, TRP, first control information based on a first control resource set, CORESET, of a first CORESET group; receiving, from a second TRP, second control information based on a second CORESET of a second CORESET group; respectively, receiving, from the first TRP and the second TRP, a first data scheduled based on the first control information and a second data scheduled based on the second control information; and transmitting, to the first TRP and/or the second TRP, first feedback information corresponded to the first data and second feedback information corresponded to the second data, wherein an index of the first CORESET group and an index of the second CORESET group have different values, wherein each of the first control information and the second control information includes a Downlink Assignment Index, DAI, field, and wherein a value of the DAI field is configured based on i) the index of the first CORESET group and the index of the second CORESET group, ii) an index of a serving cell and iii) an index of monitoring occasion in which each control information is to be transmitted, wherein, based on that the first control information and the second control information are received from a same cell having a same serving cell index at a same monitoring occasion, the value of the DAI field is configured in ascending order of the index of the first CORESET group and the index of the second CORESET group.