mhurhangee/ep-ind-claims huggingface dataset:
Telematics unit, wherein the telematics unit comprises a processor and a storage device and comprises as further hardware components a positioning hardware and an audio hardware and a modem hardware, - wherein the telematics unit comprises at least two telematic applications, including at least one eCall application and at least one further application, - wherein the telematic applications are connected for an exchange of commands and of information by an application programming interface and hardware abstraction Layer to the further hardware components, - wherein the application programming interface is divided into a first interface (401; 501; 601) and a second interface (402; 502; 602), - wherein the hardware abstraction layer comprises a positioning abstraction layer assigned to the positioning hardware, an audio abstraction layer assigned to the audio hardware and a radio interface layer assigned to the modem hardware, - the at least one eCall application (EAP; 101, 201, 301, 401) is connected for the exchange of commands and of information via the first interface (401; 501; 601) with the positioning abstraction Layer and with the audio abstraction layer and with the radio interface layer to the further hardware components of the telematics unit and - wherein at least one further application is connected for the exchange of commands and of information via second interface (402; 502; 602) with the positioning abstraction layer and with the audio abstraction layer to the further hardware components of the telematics unit. - wherein the telematics unit comprises at least two telematic applications, including at least one eCall application and at least one further application, - wherein the telematic applications are connected for an exchange of commands and of information by an application programming interface and hardware abstraction Layer to the further hardware components, - wherein the application programming interface is divided into a first interface (401; 501; 601) and a second interface (402; 502; 602), - wherein the hardware abstraction layer comprises a positioning abstraction layer assigned to the positioning hardware, an audio abstraction layer assigned to the audio hardware and a radio interface layer assigned to the modem hardware, - the at least one eCall application (EAP; 101, 201, 301, 401) is connected for the exchange of commands and of information via the first interface (401; 501; 601) with the positioning abstraction Layer and with the audio abstraction layer and with the radio interface layer to the further hardware components of the telematics unit and - wherein at least one further application is connected for the exchange of commands and of information via second interface (402; 502; 602) with the positioning abstraction layer and with the audio abstraction layer to the further hardware components of the telematics unit.
A coaxial main rotor system, comprising: a rotor mast assembly comprising an upper rotor mast and a coaxial counter-rotating lower rotor mast; an upper rotor system comprising an upper rotor hub configured to couple a plurality of rotor blades to the upper rotor mast for selective rotation therewith, and an upper vibration reduction system comprising an upper vibration attenuator coupled to the upper rotor mast, the upper vibration attenuator being configured to orbit the upper rotor mast in response to N/rev vibrations in the upper rotor mast and disposed adjacently to the upper rotor hub; and a coaxial counter-rotating lower rotor system comprising a lower rotor hub configured to couple a plurality of rotor blades to the lower rotor mast for selective rotation therewith, and a lower vibration reduction system comprising a lower vibration attenuator coupled to the coaxial counter-rotating lower rotor mast, the lower vibration attenuator being configured to orbit the lower rotor mast in response to N/rev vibrations in the lower rotor mast and disposed adjacently to the lower rotor hub. a rotor mast assembly comprising an upper rotor mast and a coaxial counter-rotating lower rotor mast; an upper rotor system comprising an upper rotor hub configured to couple a plurality of rotor blades to the upper rotor mast for selective rotation therewith, and an upper vibration reduction system comprising an upper vibration attenuator coupled to the upper rotor mast, the upper vibration attenuator being configured to orbit the upper rotor mast in response to N/rev vibrations in the upper rotor mast and disposed adjacently to the upper rotor hub; and a coaxial counter-rotating lower rotor system comprising a lower rotor hub configured to couple a plurality of rotor blades to the lower rotor mast for selective rotation therewith, and a lower vibration reduction system comprising a lower vibration attenuator coupled to the coaxial counter-rotating lower rotor mast, the lower vibration attenuator being configured to orbit the lower rotor mast in response to N/rev vibrations in the lower rotor mast and disposed adjacently to the lower rotor hub.
A material dispenser adapted for use with various sizes of cartridges having a body from which extends a neck, comprising: a back plate; a pair of side plates movably carried on said back plate, said side plates spaced from one another to define a cavity therebetween, said side plates each being biased by a spring so as to adjust the size of said cavity in order to accommodate the body of the cartridge therein; a pair of support ledges extending from said back plate to carry the body, said support ledges spaced apart to form an opening therebetween to receive the neck of the cartridge therethrough; and a cover attached to said back plate to cover said cavity. a back plate; a pair of side plates movably carried on said back plate, said side plates spaced from one another to define a cavity therebetween, said side plates each being biased by a spring so as to adjust the size of said cavity in order to accommodate the body of the cartridge therein; a pair of support ledges extending from said back plate to carry the body, said support ledges spaced apart to form an opening therebetween to receive the neck of the cartridge therethrough; and a cover attached to said back plate to cover said cavity.
Elevator arrangement, comprising: - an elevator shaft including at least one fixation structure; - suspension traction means comprising a plurality of electrically conductive cords; - an elevator car which is at least partly carried by the suspension traction means; - a fixation arrangement for attaching the suspension traction means in a load carrying manner to the fixation structure; wherein the fixation arrangement is adapted such as to provide for an electric isolation between the suspension traction means and the fixation structure wherein the fixation arrangement comprises - a clamping member clamping the suspension traction member, - an upper support member supported at the fixation structure and - a longitudinal connection member mechanically connecting the clamping member and the upper support member in a load carrying manner, characterized in that the fixation arrangement further comprises an upper isolation member interposed between the upper support member and a load carrying structure at the fixation structure, the upper isolation member being adapted for electrically isolating the upper support member and/or the longitudinal connection member from the fixation structure. - an elevator shaft including at least one fixation structure; - suspension traction means comprising a plurality of electrically conductive cords; - an elevator car which is at least partly carried by the suspension traction means; - a fixation arrangement for attaching the suspension traction means in a load carrying manner to the fixation structure; - a clamping member clamping the suspension traction member, - an upper support member supported at the fixation structure and - a longitudinal connection member mechanically connecting the clamping member and the upper support member in a load carrying manner,
A method performed by a device (602/604/606) implementing a router network element, wherein the router network element operates within a network including a Segment Routing, SR, network portion and a Multiprotocol Label Switching, MPLS, network portion, wherein the router network element operates within both the SR network portion and the MPLS network portion, and wherein the network also utilizes an Intermediate System to Intermediate System, IS-IS, protocol for exchanging routing information, the method comprising: receiving, at the router network element, an IS-IS advertisement message originated by a mapping server, wherein the IS-IS advertisement message includes a sub-Type-length-value sub-TLV, element that identifies a preferred type of path across the MPLS network portion for an identifiable set of traffic that is to be received from the SR network portion, wherein the type of path defines a protocol used to provision the path; identifying, by the router network element based at least in part upon the sub-TLV element, one path of a plurality of available paths (108B/110) across the MPLS network portion for the identifiable set of traffic; and configuring, by the router network element, a forwarding plane of the router network element to utilize the identified one path to forward any received traffic from the SR network portion that can be determined to belong to the identifiable set of traffic. receiving, at the router network element, an IS-IS advertisement message originated by a mapping server, wherein the IS-IS advertisement message includes a sub-Type-length-value sub-TLV, element that identifies a preferred type of path across the MPLS network portion for an identifiable set of traffic that is to be received from the SR network portion, wherein the type of path defines a protocol used to provision the path; identifying, by the router network element based at least in part upon the sub-TLV element, one path of a plurality of available paths (108B/110) across the MPLS network portion for the identifiable set of traffic; and configuring, by the router network element, a forwarding plane of the router network element to utilize the identified one path to forward any received traffic from the SR network portion that can be determined to belong to the identifiable set of traffic.
A vacuum cleaner filter bag comprising: a bottom member; a cover member, wherein an inflow opening is provided in the cover member and a holding plate at least partially surrounding the inflow opening is connected to the cover member; and at least four intermediate members which are interposed between the bottom member and the cover member each comprising a through opening aligned with the inflow opening of the cover member; wherein the intermediate members are configured as filter elements each comprising a nonwoven fabric and/or a fibrous web; wherein the intermediate member immediately adjoining the bottom member is connected to the bottom member along the outer edge of the intermediate member or along the edge of the through opening; and wherein adjacent intermediate members are alternately joined along the edges of the through openings and along the outer edge thereof. a bottom member; a cover member, wherein an inflow opening is provided in the cover member and a holding plate at least partially surrounding the inflow opening is connected to the cover member; and at least four intermediate members which are interposed between the bottom member and the cover member each comprising a through opening aligned with the inflow opening of the cover member; wherein the intermediate members are configured as filter elements each comprising a nonwoven fabric and/or a fibrous web; wherein the intermediate member immediately adjoining the bottom member is connected to the bottom member along the outer edge of the intermediate member or along the edge of the through opening; and wherein adjacent intermediate members are alternately joined along the edges of the through openings and along the outer edge thereof.
A method for synthesizing a monofunctional thiuram, the method comprising: reacting a tetraorganylthiuram disulfide with an organyl mercaptan to produce a monofunctional thiuram and a dithiocarbamate metal salt or a dithiocarbamate metalloid salt under basic conditions; separating the monofunctional thiuram in an organic phase from the dithiocarbamate metal salt or a dithiocarbamate metalloid salt in an aqueous phase; and recovering the monofunctional thiuram from the aqueous phase. reacting a tetraorganylthiuram disulfide with an organyl mercaptan to produce a monofunctional thiuram and a dithiocarbamate metal salt or a dithiocarbamate metalloid salt under basic conditions; separating the monofunctional thiuram in an organic phase from the dithiocarbamate metal salt or a dithiocarbamate metalloid salt in an aqueous phase; and recovering the monofunctional thiuram from the aqueous phase.
A motor vehicle, in particular a truck, comprising a drive transmission connected to a drive engine of the motor vehicle, a power take-off connected to an auxiliary output of the drive transmission, and an auxiliary unit connected to the power take-off, characterized in that the auxiliary unit is coupled to the power take-off by means of an auxiliary transmission in such a way that the auxiliary unit is arranged below the drive transmission with the power take-off thereof, and in that the power take-off comprises a power take-off shaft to which the auxiliary transmission is connected.
A method of controlling communication in a wireless communication network, the method comprising: a wireless communication device controlling changing of a connection of the wireless communication device to an access node of the wireless communication network between: - a relay based connection to the access node, the relay based connection extending via a device-to-device communication link between the wireless communication device and a first further wireless communication device, and - either a direct connection to the access node or another relay based connection to the access node, the other relay based connection extending via another device-to-device communication link between the wireless communication device and a second further wireless communication device; characterized in: the wireless communication sending an indication to the access node, the indication enabling the access node to identify an existing Packet Data Convergence Protocol context, which was utilized before changing the connection, and to continue utilizing the existing Packet Data Convergence Protocol context after the changing of the connection. - a relay based connection to the access node, the relay based connection extending via a device-to-device communication link between the wireless communication device and a first further wireless communication device, and - either a direct connection to the access node or another relay based connection to the access node, the other relay based connection extending via another device-to-device communication link between the wireless communication device and a second further wireless communication device;
Method (TFI_MD) for modelling sets of acoustic transfer functions specific to an individual according to a multiplicity of directions in space, in which a set of acoustic transfer functions (tf 1,di U,...tf N,di U) that are specific to an individual in a given direction (di) of the multiplicity of directions is determined (TFI_DT) depending on the result (r di U) of a statistical analysis (ST_NLZ) of a plurality of distinct stimuli ({(s 1,di j,... s N,di j))} j) emitted in the direction of the individual, a stimulus being dependent on at least one set of predetermined acoustic transfer functions that are associated with the given direction (di), and on responses ({S j, di U} j) received from the individual to each emitted stimulus, characterized in that each distinct stimulus (s 1,di j... s N,di j) results from the addition (+) of noise (n j) to a set of average acoustic transfer functions (avg{tf 1,di k} k...avg{tf N,di k} k) that are associated with the given direction (di), said average acoustic transfer functions being calculated depending on sets of acoustic transfer functions, which acoustic transfer functions are recorded in a database (tf_bdd) of acoustic transfer functions and associated with the given direction (di).
An electronic device comprising: a housing including a metallic member; a battery pack disposed in the housing; a substrate disposed adjacent to the battery pack and includes at least one heat generating source; and a heat dissipation plate disposed to overlap at least a portion of the battery pack and the substrate, and is formed of a metallic material, wherein the heat dissipation plate is configured to dissipate heat generated from the heat generating source to the battery pack through the heat dissipation plate, and wherein the heat dissipation plate and the housing include at least one fastening structure for electric isolation from the metallic member of the housing. a housing including a metallic member; a battery pack disposed in the housing; a substrate disposed adjacent to the battery pack and includes at least one heat generating source; and a heat dissipation plate disposed to overlap at least a portion of the battery pack and the substrate, and is formed of a metallic material, wherein the heat dissipation plate is configured to dissipate heat generated from the heat generating source to the battery pack through the heat dissipation plate, and wherein the heat dissipation plate and the housing include at least one fastening structure for electric isolation from the metallic member of the housing.
A monoclonal antibody against a protein having the same amino acid sequence as SEQ ID NO: 1, which is an antibody produced by any one of hybridomas of accession No. NITE BP-668, accession No. NITE BP-669, and accession No. NITE BP-673.
A fiber optic equipment apparatus comprising a fiber optic equipment guide and fiber optic equipment trays, comprising: a guide panel; at least one guide member (184, 186) disposed in the guide panel and configured to receive the fiber optic equipment trays; characterized in that at least three stopping members (188, 190) are disposed in each of the guide members (184, 186) configured to provide one less stopping position than the number of stopping members (188, 190) for the respective fiber optic equipment tray during movement in the respective guide member (184, 186), wherein the respective fiber optic equipment tray is configured to engage at least two of the at least three stopping members to provide a stopping position for the respective fiber optic equipment tray. a guide panel; at least one guide member (184, 186) disposed in the guide panel and configured to receive the fiber optic equipment trays; characterized in that at least three stopping members (188, 190) are disposed in each of the guide members (184, 186) configured to provide one less stopping position than the number of stopping members (188, 190) for the respective fiber optic equipment tray during movement in the respective guide member (184, 186), wherein the respective fiber optic equipment tray is configured to engage at least two of the at least three stopping members to provide a stopping position for the respective fiber optic equipment tray.
A method for use in a first network node, the method comprising: establishing a first Stream Control Transmission Protocol, SCTP, association for an application protocol connection between the first network node and a second network node; connecting the application protocol connection between the first network node and the second network node; establishing a second SCTP association for the application protocol connection between the first network node and the second network node in a Radio Access Network, RAN: characterized in that the method further comprises: dedicating the first SCTP association to one or more user equipment, UE, associated signaling streams, each UE associated signaling stream associated with a respective UE; and dedicating the second SCTP association to a non-UE associated signaling stream. establishing a first Stream Control Transmission Protocol, SCTP, association for an application protocol connection between the first network node and a second network node; connecting the application protocol connection between the first network node and the second network node; establishing a second SCTP association for the application protocol connection between the first network node and the second network node in a Radio Access Network, RAN: characterized in that the method further comprises: dedicating the first SCTP association to one or more user equipment, UE, associated signaling streams, each UE associated signaling stream associated with a respective UE; and dedicating the second SCTP association to a non-UE associated signaling stream. dedicating the first SCTP association to one or more user equipment, UE, associated signaling streams, each UE associated signaling stream associated with a respective UE; and dedicating the second SCTP association to a non-UE associated signaling stream.
A communication device comprising: a metal chassis, wherein the metal chassis includes a metal back surface and at least a first metal edge surface and a second metal edge surface; a printed circuit board positioned within the metal chassis; and a hybrid cavity mode antenna, the hybrid cavity mode antenna including: a conductive wall defining at least a portion of a cavity, wherein the cavity is further defined by the metal back surface, the first metal edge surface, the second metal edge surface, the printed circuit board and the conductive wall and wherein the conductive wall includes a tuning circuit connecting the conductive wall to at least one of the first metal edge surface and the second metal edge surface; and an electrically-fed antenna configured to radiate a first radiofrequency signal in a first frequency range, wherein the electrically-fed antenna is electrically driven from the printed circuit board of the communication device, the electrically-fed antenna being positioned within the cavity to drive the cavity to radiate a second radiofrequency signal in a second frequency range. a metal chassis, wherein the metal chassis includes a metal back surface and at least a first metal edge surface and a second metal edge surface; a printed circuit board positioned within the metal chassis; and a hybrid cavity mode antenna, the hybrid cavity mode antenna including: a conductive wall defining at least a portion of a cavity, wherein the cavity is further defined by the metal back surface, the first metal edge surface, the second metal edge surface, the printed circuit board and the conductive wall and wherein the conductive wall includes a tuning circuit connecting the conductive wall to at least one of the first metal edge surface and the second metal edge surface; and an electrically-fed antenna configured to radiate a first radiofrequency signal in a first frequency range, wherein the electrically-fed antenna is electrically driven from the printed circuit board of the communication device, the electrically-fed antenna being positioned within the cavity to drive the cavity to radiate a second radiofrequency signal in a second frequency range. a conductive wall defining at least a portion of a cavity, wherein the cavity is further defined by the metal back surface, the first metal edge surface, the second metal edge surface, the printed circuit board and the conductive wall and wherein the conductive wall includes a tuning circuit connecting the conductive wall to at least one of the first metal edge surface and the second metal edge surface; and an electrically-fed antenna configured to radiate a first radiofrequency signal in a first frequency range, wherein the electrically-fed antenna is electrically driven from the printed circuit board of the communication device, the electrically-fed antenna being positioned within the cavity to drive the cavity to radiate a second radiofrequency signal in a second frequency range.