mhurhangee/ep-ind-claims huggingface dataset:
Laminating device for producing a laminate product (2; 102) having a tab (3; 103), comprising a first lamination sheet (4; 104) extending longitudinally along a longitudinal axis and having a first planar pressure surface (4a; 104a) associated with the upper side of the laminate product, wherein a first indentation (10; 110) is present in the first lamination sheet (4; 104) next to the first planar pressure surface (4a; 104a), a second lamination sheet (5; 105) having a second planar pressure surface (5a; 105a) associated with the underside of the laminate product (2; 102), wherein a second indentation (11; 111) is present in the second lamination sheet (5; 105) next to the second planar pressure surface (5a; 105a), wherein the first indentation (10; 110) and the second indentation (11; 111) are designed as grooves, wherein the first indentation (10; 110) is arranged in the proximity of an edge region of the first lamination sheet (4; 104) and the second indentation (11; 111) is arranged in the proximity of an edge region of the second lamination sheet (5; 105), characterized in that at least the first lamination sheet has a first recess between the first pressure surface and the first indentation, which recess spaces the first pressure surface and the first indentation from one another in a direction transverse to the longitudinal axis. a first lamination sheet (4; 104) extending longitudinally along a longitudinal axis and having a first planar pressure surface (4a; 104a) associated with the upper side of the laminate product, wherein a first indentation (10; 110) is present in the first lamination sheet (4; 104) next to the first planar pressure surface (4a; 104a), a second lamination sheet (5; 105) having a second planar pressure surface (5a; 105a) associated with the underside of the laminate product (2; 102), wherein a second indentation (11; 111) is present in the second lamination sheet (5; 105) next to the second planar pressure surface (5a; 105a), wherein the first indentation (10; 110) and the second indentation (11; 111) are designed as grooves, wherein the first indentation (10; 110) is arranged in the proximity of an edge region of the first lamination sheet (4; 104) and the second indentation (11; 111) is arranged in the proximity of an edge region of the second lamination sheet (5; 105),
A method of treating a formation containing crude oil comprising: (a) providing a hydrocarbon recovery composition to at least a portion of the crude oil containing formation, wherein the composition comprises at least two internal olefin sulfonates selected from the group consisting of C 15-13 internal olefin sulfonates, C 19-23 internal olefin sulfonates, C 20-24 internal olefin sulfonates and C 24-28 internal olefin sulfonates, and at least one viscosity reducing compound which is iso-butyl alcohol, a C 2 -C 12 ethoxylated alcohol, 2-butoxy ethanol, diethylene glycol butyl ether, or a mixture thereof; and (b) allowing the composition to interact with hydrocarbons in the crude oil containing formation. (a) providing a hydrocarbon recovery composition to at least a portion of the crude oil containing formation, wherein the composition comprises at least two internal olefin sulfonates selected from the group consisting of C 15-13 internal olefin sulfonates, C 19-23 internal olefin sulfonates, C 20-24 internal olefin sulfonates and C 24-28 internal olefin sulfonates, and at least one viscosity reducing compound which is iso-butyl alcohol, a C 2 -C 12 ethoxylated alcohol, 2-butoxy ethanol, diethylene glycol butyl ether, or a mixture thereof; and (b) allowing the composition to interact with hydrocarbons in the crude oil containing formation.
Deflector element (1, 18, 19) for use in a deflector device (22, 27) for a hydroelectric power plant (20, 25) arranged in a body of water, wherein the deflector element (1, 18, 19) is of elongate configuration and has two mutually opposite longitudinal sides (2, 3) of circular arcuate configuration, wherein the longitudinal sides (2, 3) have the same circular arc radius and wherein circular arc centre points (5, 6) of the longitudinal sides (2, 3) are arranged spaced apart from one another in a transverse direction of the deflector element (1, 18, 19) and in a longitudinal direction of the deflector element (1, 18, 19).
A data sending method performed by a user equipment, UE, the method comprising: receiving at least two uplink grants allocated by a base station; grouping multiplexing resources corresponding to the at least two uplink grants into one group for multiplexing when they are to be sent at the same moment, whereas the at least two uplink grants are received at different moments; and multiplexing data to be sent onto transport blocks corresponding to the multiplexing resources and sending the transport blocks. receiving at least two uplink grants allocated by a base station; grouping multiplexing resources corresponding to the at least two uplink grants into one group for multiplexing when they are to be sent at the same moment, whereas the at least two uplink grants are received at different moments; and multiplexing data to be sent onto transport blocks corresponding to the multiplexing resources and sending the transport blocks.
A measuring device connection management method comprising: (a) when a connection permission request signal for connecting to a measuring device through wireless communication is received from a first communication terminal, transmitting, by a controller, a connection possible signal to the first communication terminal and updating measuring device connection state information with information about the first communication terminal, the measuring device connection state information being information about a communication terminal connected to the measuring device through wireless communication; (b) when the connection permission request signal for connecting to the measuring device through wireless communication is received from a second communication terminal, transmitting, by the controller, a disconnection request signal to the first communication terminal; and (c) when a disconnection confirmation signal is received from the first communication terminal, transmitting, by the controller, the connection possible signal to the second communication terminal and updating the measuring device connection state information with information about the second communication terminal. (a) when a connection permission request signal for connecting to a measuring device through wireless communication is received from a first communication terminal, transmitting, by a controller, a connection possible signal to the first communication terminal and updating measuring device connection state information with information about the first communication terminal, the measuring device connection state information being information about a communication terminal connected to the measuring device through wireless communication; (b) when the connection permission request signal for connecting to the measuring device through wireless communication is received from a second communication terminal, transmitting, by the controller, a disconnection request signal to the first communication terminal; and (c) when a disconnection confirmation signal is received from the first communication terminal, transmitting, by the controller, the connection possible signal to the second communication terminal and updating the measuring device connection state information with information about the second communication terminal.
A support system for an electronically self-balanced wheelchair having at least two wheels (15, 16), comprising: - at least one first support device and at least one second support device; - at least one linear drive, wherein at least the first support device is movable via the at least one linear drive, characterized in that a sensor is provided for determining a contacting of the first support device with the underground; and - a control device, in particular a microcontroller, which is configured such that the linear drive is supplied with power until the contacting with the floor is detected by means of the sensor, and, after a first contacting with the underground, the first support device is moved back again by a predetermined distance. - at least one first support device and at least one second support device; - at least one linear drive, wherein at least the first support device is movable via the at least one linear drive, characterized in that a sensor is provided for determining a contacting of the first support device with the underground; and - a control device, in particular a microcontroller, which is configured such that the linear drive is supplied with power until the contacting with the floor is detected by means of the sensor, and, after a first contacting with the underground, the first support device is moved back again by a predetermined distance.
A reactor comprising as reactor parts: a. a housing; and in said housing; b. a plasma source; and c. a catalyst, wherein said catalyst comprises as catalyst parts: i) a mesoporous support; ii) a metal selected from the group Pd, Ni, Ag or at least two thereof, wherein the metal is carried by said mesoporous support; wherein at least a part of said plasma source is located in said housing upstream of said catalyst. a. a housing; and in said housing; b. a plasma source; and c. a catalyst, wherein said catalyst comprises as catalyst parts: i) a mesoporous support; ii) a metal selected from the group Pd, Ni, Ag or at least two thereof, i) a mesoporous support; ii) a metal selected from the group Pd, Ni, Ag or at least two thereof,
A device for preventing or extinguishing a fire in an electrochemical energy storage system comprising storage cells arranged in a storage housing, in particular in lithium-ion cells, wherein a composition of expandable volume, containing an extinguishing agent for preventing or extinguishing a fire, is disposed with limited volume in one or a plurality of hollow spaces in or on the storage housing, and wherein expansion of the volume of the composition can be activated by sensors, characterized in that an electrical discharge unit is provided on the energy storage system, or the energy storage system is connected to an electrical discharge unit.
A scintillator panel comprising a substrate and a phosphor layer containing a phosphor powder, wherein the phosphor layer has a plurality of recesses in a surface thereof, an area A of openings of the recesses is 500 to 70.000 μm 2, a ratio D/T of a depth D of the recesses to a thickness T of the phosphor layer is 0.1 to 0.9, and the phosphor layer has 500 to 50000 recesses/cm 2 on the surface thereof.
A data retention method, comprising steps as follows: step 1a: a power source component is activated by a fingerprint switch installed inside a lock fastener module; step 1: a data plug of a dedicated storage module is inserted into a data socket of an encryption module and a locking element of the lock fastener module is fixed at a locking hole on the dedicated storage module; wherein the data plug and the data socket contact each other, enabling the locking element to be fixed in the locking hole for stability between the data plug and the data socket; step 1b: electrically connect a power receiving port in the locking hole and a power supply port in the locking element to the dedicated storage module which is energized by itself; step 2: the encryption module and the dedicated storage module are electrically connected to each other through the data socket; step 3: an external component of the encryption module is electrically connected to an external device such that classified information is encrypted or decrypted between the external device and a storage element of the dedicated storage module by an encryption component of the encryption module during data exchanges; step 4: a user triggers the locking element to be released from the locking hole, detaching the dedicated storage module by a power element for separation between the data plug and data socket and removal of the dedicated storage module. step 1a: a power source component is activated by a fingerprint switch installed inside a lock fastener module; step 1: a data plug of a dedicated storage module is inserted into a data socket of an encryption module and a locking element of the lock fastener module is fixed at a locking hole on the dedicated storage module; wherein the data plug and the data socket contact each other, enabling the locking element to be fixed in the locking hole for stability between the data plug and the data socket; step 1b: electrically connect a power receiving port in the locking hole and a power supply port in the locking element to the dedicated storage module which is energized by itself; step 2: the encryption module and the dedicated storage module are electrically connected to each other through the data socket; step 3: an external component of the encryption module is electrically connected to an external device such that classified information is encrypted or decrypted between the external device and a storage element of the dedicated storage module by an encryption component of the encryption module during data exchanges; step 4: a user triggers the locking element to be released from the locking hole, detaching the dedicated storage module by a power element for separation between the data plug and data socket and removal of the dedicated storage module.
A compound of formula: wherein, X- is a counterion, the counterion is iodide; R 1 is H; R 2 is H; R 4 is selected from alkyl containing 1 to 12 carbon atoms, alkenyl containing 2 to 12 carbon atoms, halogen; R 6 is alkyl containing 1 to 12 carbon atoms, or alkenyl containing 2 to 12 carbon atoms; and R 11 is alkyl containing 1 to 12 carbon atoms, or alkenyl containing 2 to 12 carbon atoms. X- is a counterion, the counterion is iodide; R 1 is H; R 2 is H; R 4 is selected from alkyl containing 1 to 12 carbon atoms, alkenyl containing 2 to 12 carbon atoms, halogen; R 6 is alkyl containing 1 to 12 carbon atoms, or alkenyl containing 2 to 12 carbon atoms; and R 11 is alkyl containing 1 to 12 carbon atoms, or alkenyl containing 2 to 12 carbon atoms.
An escape sign luminaire housing (10, 110) for accommodating an operating device for operating one or several LED light sources, wherein the housing (10, 110) has means for fixing the operating device in the housing (10, 110), characterized in that the means for fixing the operating device (10, 110) comprise at least one fastening plate (40, 50, 70), which is designed, on the one hand, for fastening to a housing wall and, on the other hand, for fixing the operating device, wherein the fastening plate (40, 50, 70) for fixing the operating device has at least one projection or one tab (45, 53, 73), which interacts with the housing of the operating device.
An animal harness comprising an elastic shoulder strap system for pulling, walking, lunging animals, which elastic shoulder strap system is fixed to the back part of the animal harness, to the lining thereof lined at least partially by a neck lining, and comprises two shoulder straps, which shoulder straps are connected in a "V" shape in a connecting element located on the axis line of the back part, forming a beta angle with each other, each forming an alpha angle with the axis line separately, where the connecting element is a curved ring and there is at least one connecting portion looped around the connecting element, on the side thereof opposite to the shoulder straps, which is fixed together with the lining in at least one fixing point on the axis line, furthermore, the ends of the shoulder straps of the elastic shoulder strap system opposite to the connecting element extend to a chest pad connected to the elastic shoulder strap system, furthermore, the animal harness has a belly strap having at least one buckle portion, running under the belly of the dog and extending in the direction of the back part, and at least one leash connector on the back part, wherein the shoulder straps, sliding on the neck lining, turn on the connecting element, on a curve determined by the curve path thereof, together, simultaneously and independently of each other, separately, to at least 40% of an alpha angle range, furthermore, the connecting portion has an elastic design, and the connecting portion elastically links the connecting element together with the lining of the back strap, whereby the connecting element and the shoulder straps are movable in the direction of both the axis line and the vertical axis line perpendicular to the axis line to the extent of the stretching of the connecting portion, and the shoulder straps are capable of elastic displacement to different extents within an alpha angle range simultaneously, depending on the extent and direction of the stretching of the connecting portion as a function of the direction and extent of the pulling or tugging forces acting through the leash connector, and the forces generated by the movement of the shoulders of the animal, the connecting portion is at least partially covered on the side opposite to the lining by a limiting element passing through the connecting element and the connecting portion is fixed together with the wider limiting element in the fixing point on the axis line, furthermore the maximum stretching of the connecting portion is controlled by the length of the limiting element, where the maximum stretching of the connecting portion in the direction of the axis line is limited by a connecting element fixing point and under maximum load acting the connecting portion bumps into it, furthermore the connecting element fixing point on the side of the limiting element opposite to the fixing point on the axis line, defined compared to the axis line, is sewn across the limiting element in the direction perpendicular to the axis line or rivetted, fixing it to the lining.
A method for disc authentication, comprising: directing light through a light-transmissive first disc surface (116, 214) towards at least a first data layer (110, 210); the method being characterised in that it further comprises: detecting light reflected from one data layer (110, 210) interfering with light reflected from at least one of the first disc surface (116, 214) and another data layer (106, 204) via a photo detector which provides a signal that varies accordingly; determining an optical interference pattern including intensity modulations of the photodetector output signal; authenticating (1118, 1120) the disc based on a comparison of the determined optical interference pattern and a stored authentication interference pattern. detecting light reflected from one data layer (110, 210) interfering with light reflected from at least one of the first disc surface (116, 214) and another data layer (106, 204) via a photo detector which provides a signal that varies accordingly; determining an optical interference pattern including intensity modulations of the photodetector output signal; authenticating (1118, 1120) the disc based on a comparison of the determined optical interference pattern and a stored authentication interference pattern.
A method of radar source identification, from a signal generated by at least one radar pulse sensor, implemented in a radar identification system accessing at least one intelligence database, said sensor detecting and characterizing the pulses produced by the radars in presence around the sensor by generating said signal in the form of pulse descriptors, the method comprising at least one processing of the data by at least one multi-layer neural network model, said processing being characterized in that it comprises at least two successive phases consisting of a first processing in supervised mode, that is to say by searching for already known and identified transmitters in databases and a second processing in unsupervised mode, that is to say by searching for unknown transmitters which are not referenced in databases, the method comprising a step of conditioning prior to said processing, and said at least one model is trained on the basis of validated results provided by the intelligence database, the conditioning step comprising a clustering of the pulse descriptors by comparison of at least one parameter from at least the frequency and the duration of the pulses.
A method performed by a processor of a wireless device that is one of a plurality of participant computing devices operating in an immersive three-dimensional group session, comprising: receiving a scene graph for an immersive three-dimensional group session, wherein the scene graph comprises at least an own graphical output node assigned to be controlled by the wireless device and respective other graphical output nodes assigned to be controlled by each of the other of the plurality of participant computing devices, and wherein the scene graph is received through a session description protocol during a session initiation protocol; controlling components of the own graphical output node relative to a three-dimensional space of the immersive three-dimensional group session; sending the components of the own graphical output node in a first media stream to the other of the plurality of participant computing devices; receiving components of the other graphical output nodes in media streams from each of the other of the plurality of participant computing devices; and rendering the immersive three-dimensional group session on a display of the wireless device based at least in part on the components of the own graphical output node and the components of the other graphical output nodes. receiving a scene graph for an immersive three-dimensional group session, wherein the scene graph comprises at least an own graphical output node assigned to be controlled by the wireless device and respective other graphical output nodes assigned to be controlled by each of the other of the plurality of participant computing devices, and wherein the scene graph is received through a session description protocol during a session initiation protocol; controlling components of the own graphical output node relative to a three-dimensional space of the immersive three-dimensional group session; sending the components of the own graphical output node in a first media stream to the other of the plurality of participant computing devices; receiving components of the other graphical output nodes in media streams from each of the other of the plurality of participant computing devices; and rendering the immersive three-dimensional group session on a display of the wireless device based at least in part on the components of the own graphical output node and the components of the other graphical output nodes.
A desktop network protocol telephone set, comprising: a network interface for connecting the telephone set to a local area network; an audio interface for providing audio signals to and from a handset of the telephone set; a processing circuit responsive to communications from the network interface; and a control circuit for changing a driving frequency of a clock signal used to drive an LCD panel of the telephone set based on an operating mode of the telephone set, wherein the driving frequency of the clock signal is at a first driving frequency during a full power operating mode of the telephone set and at a second, higher, driving frequency during a low power operating mode of the telephone set. a network interface for connecting the telephone set to a local area network; an audio interface for providing audio signals to and from a handset of the telephone set; a processing circuit responsive to communications from the network interface; and a control circuit for changing a driving frequency of a clock signal used to drive an LCD panel of the telephone set based on an operating mode of the telephone set, wherein the driving frequency of the clock signal is at a first driving frequency during a full power operating mode of the telephone set and at a second, higher, driving frequency during a low power operating mode of the telephone set.