mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a simulation vehicle, the method comprising: determining, by a simulation device, a first region corresponding to a first simulation position where the simulation vehicle is located at a first time point; obtaining, by the simulation device, first environment information about the first region and second environment information about a second region adjacent to the first region, wherein the first environment information includes a first obstacle information and first road network information related to the first region, and the second environment information includes a second obstacle information and second road network information related to the second region; sending, by the simulation device, the first environment information and the second environment information to a control device of the simulation vehicle; generating, by the control device, a control signal for the simulation vehicle based on the first environment information and the second environment information, wherein the control signal is configured to control an action performed by the simulation vehicle; receiving, by the simulation device, the control signal for the simulation vehicle from the control device; determining, by the simulation device, a first action performed by the simulation vehicle at a second time point after the first time point based on the control signal; determining whether the first action meets a predetermined evaluation criterion related to vehicle driving. determining, by a simulation device, a first region corresponding to a first simulation position where the simulation vehicle is located at a first time point; obtaining, by the simulation device, first environment information about the first region and second environment information about a second region adjacent to the first region, wherein the first environment information includes a first obstacle information and first road network information related to the first region, and the second environment information includes a second obstacle information and second road network information related to the second region; sending, by the simulation device, the first environment information and the second environment information to a control device of the simulation vehicle; generating, by the control device, a control signal for the simulation vehicle based on the first environment information and the second environment information, wherein the control signal is configured to control an action performed by the simulation vehicle; receiving, by the simulation device, the control signal for the simulation vehicle from the control device; determining, by the simulation device, a first action performed by the simulation vehicle at a second time point after the first time point based on the control signal; determining whether the first action meets a predetermined evaluation criterion related to vehicle driving.
A sheet for thin layer transfer, comprising: a substrate that comprises a thin metal film or a thin heat-resistant resin film that is capable of withstanding a temperature of 350 °C and that is insoluble in a dispersion medium of a solution of a fluorine resin, the substrate having a thickness of 35 to 150 pm; and a fluorine resin layer that coats both sides of the substrate and edges faces of the substrate, wherein the fluorine resin layer contains a fluorine resin sintered at a temperature equal to or higher than the melting point of the fluorine resin, and the fluorine resin layer contains polytetrafluoroethylene that is a sinter of polytetrafluoroethylene having a number average molecular weight of 5,000,000 or more as the fluorine resin. a substrate that comprises a thin metal film or a thin heat-resistant resin film that is capable of withstanding a temperature of 350 °C and that is insoluble in a dispersion medium of a solution of a fluorine resin, the substrate having a thickness of 35 to 150 pm; and a fluorine resin layer that coats both sides of the substrate and edges faces of the substrate,
Method for aligning surveying instruments (220, 230), including: emitting a collimated light beam (e.g. infrared light) from a first surveying instrument towards a second surveying instrument, the collimated light beam being aligned with a line of sight of the first surveying instrument; receiving at the first surveying instrument a reflection of the collimated light beam from an autocollimation mirror at the second surveying instrument, the normal of the autocollimation mirror being arranged with a predetermined relationship with respect to the line of sight of the second surveying instrument; moving at least one of the first and second surveying instruments (220, 230) to autocollimate the reflected collimated light beam at an autocollimator of the first surveying instrument; and registering the first and the second surveying instruments (220, 230) in a common space based on an orientation of the line of sight of the first surveying instrument when the collimated light beam is autocollimated at the first surveying instrument, and based on the predetermined relationship between the normal of the autocollimation mirror and the line of sight of the second surveying instrument emitting a collimated light beam (e.g. infrared light) from a first surveying instrument towards a second surveying instrument, the collimated light beam being aligned with a line of sight of the first surveying instrument; receiving at the first surveying instrument a reflection of the collimated light beam from an autocollimation mirror at the second surveying instrument, the normal of the autocollimation mirror being arranged with a predetermined relationship with respect to the line of sight of the second surveying instrument; moving at least one of the first and second surveying instruments (220, 230) to autocollimate the reflected collimated light beam at an autocollimator of the first surveying instrument; and registering the first and the second surveying instruments (220, 230) in a common space based on an orientation of the line of sight of the first surveying instrument when the collimated light beam is autocollimated at the first surveying instrument, and based on the predetermined relationship between the normal of the autocollimation mirror and the line of sight of the second surveying instrument
A method of regulating power consumption within an integrated circuit (200; 300) comprising programmable circuitry (204; 315) coupled to a processor system (202; 310) that is hard-wired, the method comprising: placing the processor system (202; 310) and the programmable circuitry (204; 315) of the integrated circuit (200; 300) in an operational mode; wherein the processor system (202; 310) comprises a core (208; 210) configured to execute program code and an interface (256A-D) coupled to the programmable circuitry (204; 315); wherein the interface is configured to transfer data between the processor system (202; 310) and the programmable circuitry (204; 315); initiating a power off procedure within the programmable circuitry (204; 315) under control of the processor system (202; 310) while the processor system (202; 310) remains in the operational mode, wherein the programmable circuitry (204; 315) is configured to be powered off without the processor system (202; 310) being powered off, and subsequently powering on the programmable circuitry (204; 315) under control of the processor system (202; 310); and configuring at least a portion of the programmable circuitry (204; 315) with one of a plurality of circuits selected by the processor system (202; 310) according to power profiles of the plurality of circuits, wherein each of the plurality of circuits is functionally equivalent and has a different power profile. placing the processor system (202; 310) and the programmable circuitry (204; 315) of the integrated circuit (200; 300) in an operational mode; wherein the processor system (202; 310) comprises a core (208; 210) configured to execute program code and an interface (256A-D) coupled to the programmable circuitry (204; 315); wherein the interface is configured to transfer data between the processor system (202; 310) and the programmable circuitry (204; 315); initiating a power off procedure within the programmable circuitry (204; 315) under control of the processor system (202; 310) while the processor system (202; 310) remains in the operational mode, wherein the programmable circuitry (204; 315) is configured to be powered off without the processor system (202; 310) being powered off, and subsequently powering on the programmable circuitry (204; 315) under control of the processor system (202; 310); and configuring at least a portion of the programmable circuitry (204; 315) with one of a plurality of circuits selected by the processor system (202; 310) according to power profiles of the plurality of circuits, wherein each of the plurality of circuits is functionally equivalent and has a different power profile.
A method for processing data, at a transmiter, the method comprising: receiving, transmission data packets passed through a higher layer of the transmitter, wherein the transmission data packets are data packets to be transmitted by the transmitter; processing, the transmission data packets at a transport layer 1, wherein processing at the transport layer 1 during transmission comprises: allocating Sequence Numbers, SNs; the transport layer 1 refers to Layer 2 protocol, L2, high layer, and processing, the processed transmission data packets, at a transport layer 2, wherein processing at the transport layer 2 during transmission comprises: passing the processed transmission data packets to a physical layer according to a size of a scheduled transmission resource so that they are transmitted via an air interface to a receiver; the transport layer 2 refers to L2 low layer; wherein L2 relates to 3rd Generation Partnership Project, 3 GPP-defined mobile networks; wherein processing at the transport layer 1 during transmission further comprises: deciding whether to segment the data packets to be initially transmitted, at the transport layer 1 according to a configuration, and/or deciding whether to segment the data packets to be retransmitted, at the transport layer 1 according to a configuration, and if so, passing the transmission data packets segmented at the transport layer 1 to the transport layer 2 for processing, wherein the configuration for initial transmission of the data packets is the same as or different from the configuration for retransmission of the data packets. receiving, transmission data packets passed through a higher layer of the transmitter, wherein the transmission data packets are data packets to be transmitted by the transmitter; processing, the transmission data packets at a transport layer 1, wherein processing at the transport layer 1 during transmission comprises: allocating Sequence Numbers, SNs; the transport layer 1 refers to Layer 2 protocol, L2, high layer, and processing, the processed transmission data packets, at a transport layer 2, wherein processing at the transport layer 2 during transmission comprises: passing the processed transmission data packets to a physical layer according to a size of a scheduled transmission resource so that they are transmitted via an air interface to a receiver; the transport layer 2 refers to L2 low layer; wherein L2 relates to 3rd Generation Partnership Project, 3 GPP-defined mobile networks; wherein processing at the transport layer 1 during transmission further comprises: deciding whether to segment the data packets to be initially transmitted, at the transport layer 1 according to a configuration, and/or deciding whether to segment the data packets to be retransmitted, at the transport layer 1 according to a configuration, and if so, passing the transmission data packets segmented at the transport layer 1 to the transport layer 2 for processing, wherein the configuration for initial transmission of the data packets is the same as or different from the configuration for retransmission of the data packets.
A method for determining the number of hematopoietic precursor cells in a sample comprising: culturing hematopoietic cells obtained from a sample of a hematopoietic cell-containing tissue or fluid in a medium which supports growth of hematopoietic precursor cell colonies; staining the colonies in a single step with MTT (3-[4,5-dimethylthiazol-2yl]-2,5-diphenyltetrazolium bromide) without washing; imaging the colonies in the absence of a microscope; and counting the colonies' erythroid (erythroid colony forming unit), multilineage (multilineage colony forming unit), and granulocyte-macrophage (granulocyte-macrophage colony forming unit) precursor cells, and combinations thereof, in the sample, wherein determining the number of hematopoietic precursor cells is performed with an image detection and quantification system comprising: a high resolution camera; appropriate light alignments; a broad spectrum flash tube; and a positive sample identification. culturing hematopoietic cells obtained from a sample of a hematopoietic cell-containing tissue or fluid in a medium which supports growth of hematopoietic precursor cell colonies; staining the colonies in a single step with MTT (3-[4,5-dimethylthiazol-2yl]-2,5-diphenyltetrazolium bromide) without washing; imaging the colonies in the absence of a microscope; and counting the colonies' erythroid (erythroid colony forming unit), multilineage (multilineage colony forming unit), and granulocyte-macrophage (granulocyte-macrophage colony forming unit) precursor cells, and combinations thereof, in the sample, a high resolution camera; appropriate light alignments; a broad spectrum flash tube; and a positive sample identification.
A multilayer sealant comprising: a) a first sealant layer; b) a second sealant layer; and c) an intermediate sealant layer comprising a polymer blend comprising at least one (i) polysulfide component and at least one (ii) polythioether component, wherein the intermediate sealant layer is between the first sealant layer and the second sealant layer, and wherein either the first or second sealant is based on polysulfide chemistry and the other of the first or second sealant is based on polythioether chemistry. a) a first sealant layer; b) a second sealant layer; and c) an intermediate sealant layer comprising a polymer blend comprising at least one (i) polysulfide component and at least one (ii) polythioether component, wherein
A method, performed by a Framework for Live uplink Streaming, FLUS, source control entity, for controlling delivery of media from a FLUS media source to a FLUS media sink over a FLUS control plane, wherein the FLUS source control entity is part of a FLUS media source that is subdivided into a FLUS source media entity and the FLUS source control entity, the method comprising the FLUS source control entity sending an indication of availability for streaming a FLUS media session over a FLUS user plane; the FLUS source control entity establishing connections with plurality of controller nodes including a first controller node; the FLUS source control entity receiving a first command from the first controller node targeted to a camera associated with the FLUS media source; and the FLUS source control entity relaying the first command to the camera; the FLUS source control entity establishing connections with a second controller node from the plurality of controller nodes, the FLUS source control entity receiving a second command from the second controller node targeted to an encoding process used at the FLUS media source for the same FLUS media session, the FLUS source control entity relaying the second command to the FLUS media source. a FLUS media source to a FLUS media sink over a FLUS control plane, wherein the FLUS source control entity is part of a FLUS media source that is subdivided into a FLUS source media entity and the FLUS source control entity, the method comprising the FLUS source control entity sending an indication of availability for streaming a FLUS media session over a FLUS user plane; the FLUS source control entity establishing connections with plurality of controller nodes including a first controller node; the FLUS source control entity receiving a first command from the first controller node targeted to a camera associated with the FLUS media source; and the FLUS source control entity relaying the first command to the camera; the FLUS source control entity establishing connections with a second controller node from the plurality of controller nodes, the FLUS source control entity receiving a second command from the second controller node targeted to an encoding process used at the FLUS media source for the same FLUS media session, the FLUS source control entity relaying the second command to the FLUS media source.
A method of forming an electric field gap structure, comprising: forming a first dielectric layer over a substrate; forming a cathode layer over the first dielectric layer; forming a second dielectric layer over the cathode layer; etching anode channels through the second dielectric layer and the cathode layer and only partially into the first dielectric layer; lining the resulting surface with a third dielectric layer; forming conductive anode pillars in the anode channels on the third dielectric layer; etching away the third dielectric layer and the second dielectric layer in the vicinity of the anode pillars, and at least partially etching away the first dielectric layer in the vicinity of the anode pillars, thereby to leave a suspended portion of the cathode layer which defines a lateral gap to an adjacent anode pillar. forming a first dielectric layer over a substrate; forming a cathode layer over the first dielectric layer; forming a second dielectric layer over the cathode layer; etching anode channels through the second dielectric layer and the cathode layer and only partially into the first dielectric layer; lining the resulting surface with a third dielectric layer; forming conductive anode pillars in the anode channels on the third dielectric layer; etching away the third dielectric layer and the second dielectric layer in the vicinity of the anode pillars, and at least partially etching away the first dielectric layer in the vicinity of the anode pillars, thereby to leave a suspended portion of the cathode layer which defines a lateral gap to an adjacent anode pillar.
A hearing device comprising a BTE unit adapted to convert and process sound to an electrical signal and a tubular element adapted to communicate said electrical signal to an earpiece, wherein said earpiece comprises a canal element adapted to provide a tight fit of said earpiece in an ear canal and a speaker element, characterised in that said earpiece comprises snapping means adapted to snap into engagement with said speaker element thereby maintaining said speaker element in an axially fixed position within said canal element while allowing rotational movement of said speaker element in said canal element.
A lifting appliance, comprising: - a frame, - wheels mounted on axles of the frame, each wheel comprising a rim comprising a radial web attached to a rotary element at one of the ends of one of the axles, - a load support, and - means for raising the load support, characterized in that the radial webs of the rims are axially offset towards one of the side edges (94, 95) of the wheels relative to a median plane of each wheel, in that the wheels are suitable for being mounted on the axles in a first position, corresponding to a usage configuration of the lifting platform, in which the median planes are remote from the frame, and in a second position, corresponding to a transport configuration of the lifting platform, in which the median planes are moved closer to the frame, and in that the lifting appliance comprises means for signaling the mounting position of the wheels and/or means for limiting the raising of the load support when the wheels are in the second position thereof. - a frame, - wheels mounted on axles of the frame, each wheel comprising a rim comprising a radial web attached to a rotary element at one of the ends of one of the axles, - a load support, and - means for raising the load support,
An apparatus for sealing an open end of a package, said apparatus comprising: a first longitudinally extending sealing jaw, bearing mounted on a first eccentric shaft, said first eccentric shaft (1 05) rotating around a first rotational axis; a second longitudinally extending sealing jaw (1 02), bearing mounted on a second eccentric shaft, said second eccentric shaft rotating around a second rotational axis, said second sealing jaw (1 02) being parallel with said first sealing jaw; at least one motor (103, 104) driving the rotation around said first and second rotational axis (107, 108) in opposite directions; wherein the first and the second sealing jaws (101, 102) are opposing each other, and are allowed to oscillate between a sealing and an open position, by moving towards and away from each other; a first and a second transversally extending guiding bar (109, 110), bearing mounted between said first and second eccentric shaft (105, 106); said first and second transversally extending guiding bar (109, 110) being arched upwardly, said first and a second transversally extending guiding bar (109, 110) cooperating with said first and second eccentric shaft via guiding pins (113, 114) running in guiding grooves (111, 112), such that a play between the first and the second eccentric shaft (105, 106) and the first and second sealing jaw (101, 102) is allowed in a transversal direction. a first longitudinally extending sealing jaw, bearing mounted on a first eccentric shaft, said first eccentric shaft (1 05) rotating around a first rotational axis; a second longitudinally extending sealing jaw (1 02), bearing mounted on a second eccentric shaft, said second eccentric shaft rotating around a second rotational axis, said second sealing jaw (1 02) being parallel with said first sealing jaw; at least one motor (103, 104) driving the rotation around said first and second rotational axis (107, 108) in opposite directions; wherein the first and the second sealing jaws (101, 102) are opposing each other, and are allowed to oscillate between a sealing and an open position, by moving towards and away from each other; a first and a second transversally extending guiding bar (109, 110), bearing mounted between said first and second eccentric shaft (105, 106); said first and second transversally extending guiding bar (109, 110) being arched upwardly, said first and a second transversally extending guiding bar (109, 110) cooperating with said first and second eccentric shaft via guiding pins (113, 114) running in guiding grooves (111, 112), such that a play between the first and the second eccentric shaft (105, 106) and the first and second sealing jaw (101, 102) is allowed in a transversal direction.
A lithium secondary battery comprising a positive electrode including a positive electrode current collector and a positive electrode material mixture; a negative electrode comprising a negative electrode current collector and a negative electrode material mixture; a separator interposed therebetween; and an electrolyte, wherein the positive electrode material mixture comprises a complex combined from Co, CoO, Co 3 O 4 and Li 2 O as a positive electrode active material, and the negative electrode material mixture comprises lithium metal that is separated from the negative electrode current collector and positioned between the positive electrode material mixture and the separator wherein a thin film of lithium is formed on one side of the positive electrode material mixture.