mhurhangee/ep-ind-claims huggingface dataset:
A redirection bridge device, RBD (10, 20), comprising:- an API interface comprising an API input, configured to receive a request from an application, APP, located on a user device of a user, said request comprising a request for metadata and/or a request for connection to an at least one Enterprise, said metadata being specific to at least one contact option of the at least one Enterprise, and, an API output, the API interface configured to output metadata from the API output to the user device and the API interface configured to divert metadata, a metadata store, configured to store metadata specific to the at least one Enterprise, and further configured to provide said stored metadata to the API interface according to the request (300A 300B), a Communications Manager, the Communications Manager configured to receive said metadata diverted from the API interface, and further configured to contact (300E 300F) the at least one contact option based on said metadata and to forward information received from the at least one contact option of the at least one Enterprise to the API output, for forwarding to the user device, for user connection to the at least one Enterprise via the redirection bridge device, RBD (10, 20). an API interface comprising an API input, configured to receive a request from an application, APP, located on a user device of a user, said request comprising a request for metadata and/or a request for connection to an at least one Enterprise, said metadata being specific to at least one contact option of the at least one Enterprise, and, an API output, an API input, configured to receive a request from an application, APP, located on a user device of a user, said request comprising a request for metadata and/or a request for connection to an at least one Enterprise, said metadata being specific to at least one contact option of the at least one Enterprise, and, an API output, the API interface configured to output metadata from the API output to the user device and the API interface configured to divert metadata, a metadata store, configured to store metadata specific to the at least one Enterprise, and further configured to provide said stored metadata to the API interface according to the request (300A 300B), a Communications Manager, the Communications Manager configured to receive said metadata diverted from the API interface, and further configured to contact (300E 300F) the at least one contact option based on said metadata and to forward information received from the at least one contact option of the at least one Enterprise to the API output, for forwarding to the user device, for user connection to the at least one Enterprise via the redirection bridge device, RBD (10, 20).
Use of a switchgear assembly module having at least one communication interface for connection to a bus system, having a programmable controller and having parameterizable protective functions, for the purpose of controlling and monitoring at least one electrical load in the outgoer of a low-voltage switchgear assembly, wherein the switchgear assembly module is formed from interchangeable components and has at least one central unit as well as at least one bus connection unit having a communication interface for connection to a bus system, the switchgear assembly module communicating via the bus system with other equipment by means of said communication interface, wherein additional connection slots are provided for holding at least one power unit, which has an infeed section as well as an outgoer section, and at least one input/output unit, and wherein an internal bus is provided for communication of the central unit with the rest of the components located in the switchgear assembly module, wherein, when the load is connected, the current flows via the infeed section through the power unit via the outgoer section to the load, characterized in that an application-specific program is loaded into the programmable controller and the central unit processes the data obtained from the rest of the components in accordance with said program, wherein the protective functions of the switchgear assembly module are parameterized in an application-specific manner to protect the load.
A container which includes a container body and a chime secured to the container body and which is formed with a peripheral skirt and an integral continuous peripheral handle, the container body is formed in one piece and includes a side wall, a top wall which is received within the chime, and a bottom wall, characterised in that the bottom wall of the container body incorporates moulded ridges which radiate outwards from a central region in a petaloid configuration, the ridges being shaped to support the container stably on a flat surface and to engage a recessed area (26, 28) of the chime when one such container is stacked upon another in use.
A method implemented by a network node for allocating resources for multiple radio links in a wireless communication system, the method comprising: successively performing each of multiple scheduling loops such that the resources with one or more of multiple resource types are allocated to one or more radio links selected from the multiple radio links, wherein each of the multiple scheduling loops is associated with the one or more of multiple types of the resources, characterized in that the multiple resource types include a dedicated resource type, a shared resource type and an unused resource type, and the plurality of scheduling loops include a first scheduling loop, a second scheduling loop and a third scheduling loop, and the first scheduling loop, the second scheduling loop and the third scheduling loop are sequentially performed for the dedicated resource type, the unused resource type and the shared resource type, respectively, wherein: a dedicated resource type comprises a resource that is used exclusively by a specific radio link; a shared resource type comprises a resource that is shared between different coexisting radio links; and an unused resource type comprises a resource that is prohibitive for utilization by a certain link but may be available for the certain link after resource coordination among multiple radio links. successively performing each of multiple scheduling loops such that the resources with one or more of multiple resource types are allocated to one or more radio links selected from the multiple radio links, wherein each of the multiple scheduling loops is associated with the one or more of multiple types of the resources, characterized in that the multiple resource types include a dedicated resource type, a shared resource type and an unused resource type, and the plurality of scheduling loops include a first scheduling loop, a second scheduling loop and a third scheduling loop, and the first scheduling loop, the second scheduling loop and the third scheduling loop are sequentially performed for the dedicated resource type, the unused resource type and the shared resource type, respectively, wherein: a dedicated resource type comprises a resource that is used exclusively by a specific radio link; a shared resource type comprises a resource that is shared between different coexisting radio links; and an unused resource type comprises a resource that is prohibitive for utilization by a certain link but may be available for the certain link after resource coordination among multiple radio links. a dedicated resource type comprises a resource that is used exclusively by a specific radio link; a shared resource type comprises a resource that is shared between different coexisting radio links; and an unused resource type comprises a resource that is prohibitive for utilization by a certain link but may be available for the certain link after resource coordination among multiple radio links.
An ozone gas generator comprising: a pair of electrodes disposed at a predetermined interval to face each other; a pair of dielectrics provided on surfaces of the pair of electrodes that face each other, respectively; and a functional film provided on at least one of surfaces of the pair of dielectrics that face each other, wherein the functional film contains a crystalline compound of a titanium oxide and a niobium oxide, wherein the crystalline compound of the titanium oxide and the niobium oxide of the functional film contains at least one of TiNb 2 O 7 and Ti 2 Nb 10 O 29. a pair of electrodes disposed at a predetermined interval to face each other; a pair of dielectrics provided on surfaces of the pair of electrodes that face each other, respectively; and a functional film provided on at least one of surfaces of the pair of dielectrics that face each other, wherein the functional film contains a crystalline compound of a titanium oxide and a niobium oxide, wherein the crystalline compound of the titanium oxide and the niobium oxide of the functional film contains at least one of TiNb 2 O 7 and Ti 2 Nb 10 O 29.
Pneumatic vehicle tire having a tread, • wherein the tread has a tread segment that is arranged radially on the outside, • wherein the tread segment has a material strip that is arranged helically in windings approximately in the circumferential direction, • wherein, in the region of the tread segment, the material strip has at least two layers (8, 9) in the longitudinal direction of the material strip, • wherein the first layer is formed from a first rubber compound and the second layer is formed from a second rubber compound, different from the first, and • wherein the first layer and the second layer connect the radially outer surface of the tread segment to the radially inner surface of the tread segment characterized in that, • in the vulcanized state, the first rubber compound and the second rubber compound have approximately the same Shore A hardness, determined at room temperature in accordance with DIN ISO 7619-1, and • in that, in the vulcanized state, the first rubber compound and the second rubber compound differ in at least one further physical property. • wherein the tread has a tread segment that is arranged radially on the outside, • wherein the tread segment has a material strip that is arranged helically in windings approximately in the circumferential direction, • wherein, in the region of the tread segment, the material strip has at least two layers (8, 9) in the longitudinal direction of the material strip, • wherein the first layer is formed from a first rubber compound and the second layer is formed from a second rubber compound, different from the first, and • wherein the first layer and the second layer connect the radially outer surface of the tread segment to the radially inner surface of the tread segment • in the vulcanized state, the first rubber compound and the second rubber compound have approximately the same Shore A hardness, determined at room temperature in accordance with DIN ISO 7619-1, and • in that, in the vulcanized state, the first rubber compound and the second rubber compound differ in at least one further physical property.
An image sensor array (100, 300, 400, 1000, 1100, 1200, 1300) comprising: a carrier substrate (102, 702, 1414, 1614, 1714); a first group of photodiodes (122, 124, 302, 404, 454, 504, 654, 1004, 1104, 1204, 1304, 1602, 1802) coupled to the carrier substrate, wherein the first group of photodiodes comprise a first photodiode, and wherein the first photodiode comprises a semiconductor layer configured to absorb photons at visible wavelengths and to generate photo-carriers from the absorbed photons; and a second group of photodiodes (126, 128, 302, 402, 452, 502, 652, 1002, 1102, 1202, 1302, 1606, 1806, 1720) coupled to the carrier substrate, wherein the second group of photodiodes comprise a second photodiode, and wherein the second photodiode comprises a germanium-silicon region fabricated on the semiconductor layer, the germanium-silicon region configured to absorb photons at infrared or near-infrared wavelengths and to generate photo-carriers from the absorbed photons; wherein the first photodiode and the second photodiode are not overlapped along a direction of the light signal. a carrier substrate (102, 702, 1414, 1614, 1714); a first group of photodiodes (122, 124, 302, 404, 454, 504, 654, 1004, 1104, 1204, 1304, 1602, 1802) coupled to the carrier substrate, wherein the first group of photodiodes comprise a first photodiode, and wherein the first photodiode comprises a semiconductor layer configured to absorb photons at visible wavelengths and to generate photo-carriers from the absorbed photons; and a second group of photodiodes (126, 128, 302, 402, 452, 502, 652, 1002, 1102, 1202, 1302, 1606, 1806, 1720) coupled to the carrier substrate, wherein the second group of photodiodes comprise a second photodiode, and wherein the second photodiode comprises a germanium-silicon region fabricated on the semiconductor layer, the germanium-silicon region configured to absorb photons at infrared or near-infrared wavelengths and to generate photo-carriers from the absorbed photons; wherein the first photodiode and the second photodiode are not overlapped along a direction of the light signal.
Infrared reflective and electrically conductive composite film to coat on a substrate, said composite film comprising: at least one metal layer of connected metal nanowires conformably covered by an optically transparent conductive layer that fits closely and adapts to the shape of the at least one metal layer so as to form a flattened surface; at least one infrared reflective layer being a layer of silver nanostructured particles with irregular shape or disk shape conformably covered by another optically transparent conductive layer that fits closely and adapts to the shape of the at least one infrared reflective layer so as to form a flattened surface. at least one metal layer of connected metal nanowires conformably covered by an optically transparent conductive layer that fits closely and adapts to the shape of the at least one metal layer so as to form a flattened surface; at least one infrared reflective layer being a layer of silver nanostructured particles with irregular shape or disk shape conformably covered by another optically transparent conductive layer that fits closely and adapts to the shape of the at least one infrared reflective layer so as to form a flattened surface.
Geared fitting (100; 200; 300) for a vehicle seat, in particular motor vehicle seat, having a first gear ring (116; 216; 316), a gear wheel (118; 218; 318) meshing with the first gear ring (116; 216; 316), a further gear ring (182; 282; 382) in which the gear wheel (118; 218; 318) is meshed, and a rotatable eccentric for driving a relative rolling movement between the gear wheel (118; 218; 318) and the first gear ring (116; 216; 316), characterized by a means for eliminating play between the gear wheel (118; 218; 318) and the further gear ring (182; 282; 382), wherein the elastically prestressable means is a washer (140; 240; 340) which can be prestressed against the further gear ring (182; 282; 382), and the washer (140; 240; 340) comprises a more flexible material radially on the inside than radially on the outside.
A method for distance control of a subject vehicle to a front vehicle, in which the subject vehicle has a distance control system for setting an automatic distance control mode, with which - a front object in front of the subject vehicle is detected by a surroundings detection system of the subject vehicle, - the front object is detected as a front vehicle and - a distance (d, dt) to the front vehicle is controlled to a ACC target distance (d_ACC, t_ACC-P), wherein it is determined that a secure follow-on travel situation is present when at least the following criteria (K1-K5) are met: - the front vehicle is a moved object (v_VF>0), - the front vehicle is tracked over a minimum following time period (t min), - in the minimum following time period (t min) the same front vehicle is tracked, - the distance (d, dt) to the front vehicle lies within a predefined distance range (Δd_lim, Δt_lim), - a relative speed (Δv) lies within a predefined speed tolerance range speed tolerance range (Δv_lim), wherein upon detection of the secure follow-on travel situation a display signal is output to the driver, and up on input of a confirmation signal by the driver an automatic distance-control backed-up traffic travel mode (ACC-P) is set, which has a lower target distance (t_ACC-P, d_ACC-P) as the ACC-target distance (d_ACC, t-ACC) of the automatic distance control mode (Δt_acc-p < Δt_acc and Δd_acc-p < Δd_acc). - a front object in front of the subject vehicle is detected by a surroundings detection system of the subject vehicle, - the front object is detected as a front vehicle and - a distance (d, dt) to the front vehicle is controlled to a ACC target distance (d_ACC, t_ACC-P), wherein it is determined that a secure follow-on travel situation is present when at least the following criteria (K1-K5) are met: - the front vehicle is a moved object (v_VF>0), - the front vehicle is tracked over a minimum following time period (t min), - in the minimum following time period (t min) the same front vehicle is tracked, - the distance (d, dt) to the front vehicle lies within a predefined distance range (Δd_lim, Δt_lim), - a relative speed (Δv) lies within a predefined speed tolerance range speed tolerance range (Δv_lim), wherein upon detection of the secure follow-on travel situation a display signal is output to the driver, and up on input of a confirmation signal by the driver an automatic distance-control backed-up traffic travel mode (ACC-P) is set, which has a lower target distance (t_ACC-P, d_ACC-P) as the ACC-target distance (d_ACC, t-ACC) of the automatic distance control mode (Δt_acc-p < Δt_acc and Δd_acc-p < Δd_acc).
A method of forming a semiconductor device, the method comprising: forming a semiconductor layer on a substrate; forming an ohmic metal conductive layer on the semiconductor layer opposite the substrate; forming a mask on the ohmic metal conductive layer opposite the semiconductor layer; selectively removing portions of the ohmic metal conductive layer and the semiconductor layer exposed by the mask while maintaining the mask to define a semiconductor mesa having mesa sidewalls between the mask and the substrate and a mesa surface opposite the substrate and defining an ohmic metal contact layer on the mesa surface between the semiconductor mesa and the mask, said ohmic metal contact layer having inwardly beveled sidewalls; forming a passivation layer on the mask and on the mesa sidewalls, while maintaining the ohmic metal contact layer between the mask and the semiconductor mesa; and removing the mask and portions of the passivation layer on the mask using a lift-off technique while maintaining the ohmic metal contact layer to expose portions of the ohmic metal contact layer thereby. forming a semiconductor layer on a substrate; forming an ohmic metal conductive layer on the semiconductor layer opposite the substrate; forming a mask on the ohmic metal conductive layer opposite the semiconductor layer; selectively removing portions of the ohmic metal conductive layer and the semiconductor layer exposed by the mask while maintaining the mask to define a semiconductor mesa having mesa sidewalls between the mask and the substrate and a mesa surface opposite the substrate and defining an ohmic metal contact layer on the mesa surface between the semiconductor mesa and the mask, said ohmic metal contact layer having inwardly beveled sidewalls; forming a passivation layer on the mask and on the mesa sidewalls, while maintaining the ohmic metal contact layer between the mask and the semiconductor mesa; and removing the mask and portions of the passivation layer on the mask using a lift-off technique while maintaining the ohmic metal contact layer to expose portions of the ohmic metal contact layer thereby.
A tube electroforming method comprising the steps of: forming an electrodeposit material (52,53,54,55) or a surrounding material around a thin wire material (32,33,34,35) by electroforming; and removing the thin wire material from the electrodeposit material (52,53,54,55) or the surrounding material, wherein the thin wire material (32,33,34,35) is removed by pulling the thin wire material (32,33,34,35) from one end or both ends, deforming the thin wire material (32,33,34,35) so as to reduce a sectional area thereof, and forming a clearance between the thin wire material (32,33,34,35) and the electrodeposit material (52,53,54,55) or the surrounding material, followed by gripping and pulling the thin wire material (32,33,34,35), sucking the thin wire material (32,33,34,35), physically pushing away the thin wire material (32,33,34,35), or blowing a gas or a liquid to push away the thin wire material (32,33,34,35); wherein the thin wire material (32,33,34,35) includes a conductive layer (321;331,332) disposed on an outer surface thereof, characterized in that masking portions on which the conductive layer (321; 331, 332) is not disposed are formed on opposite ends of the thin wire material (32, 33, 34, 35); wherein the thin wire material (32,33,34,35) is removed by pulling the masking portions so that the conductive layer (321;331,332) remains on an inner surface of a tube.
Extraction fluid comprising, in an aqueous medium: - an associative polymer comprising a backbone of hydrophilic nature and from 0.001 to 10 mol% of functional groups of hydrophobic nature bringing about an increase in the viscosity of the aqueous medium and not degrading under temperature and pH conditions of a hydrocarbon reservoir; and - a labile surfactant carrying a cleavable functional group which is an ester functional group, in an amount sufficient to reduce or inhibit the effect of increasing the viscosity brought about by said associative polymer during the injection and which does not degrade after the injection under the temperature and pH conditions of the hydrocarbon reservoir, wherein the associative polymer is present at a content of 0.1 to 3 wt% with respect to the total weight of the extraction fluid. - an associative polymer comprising a backbone of hydrophilic nature and from 0.001 to 10 mol% of functional groups of hydrophobic nature bringing about an increase in the viscosity of the aqueous medium and not degrading under temperature and pH conditions of a hydrocarbon reservoir; and - a labile surfactant carrying a cleavable functional group which is an ester functional group, in an amount sufficient to reduce or inhibit the effect of increasing the viscosity brought about by said associative polymer during the injection and which does not degrade after the injection under the temperature and pH conditions of the hydrocarbon reservoir,