mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a signal, the method comprises generating a transmission signal occupying a resource with a size same as that of a time-domain resource in a target sub-frame, according to the time-domain resource size, wherein the target sub-frame is a partial sub-frame that is a start sub-frame of signal transmission as a result of contention, and/or an end sub-frame of signal transmission; and the time-domain resource size in the target sub-frame is a size of a time-domain resource to be possibly allocated for the target sub-frame when the target sub-frame is a start sub-frame of signal transmission, or is a size of a time-domain resource allocated for the target sub-frame when the target sub-frame is an end sub-frame of signal transmission; and transmitting the transmission signal, that has the same size of resources as the size of the time-domain resource allocated for the target sub-frame, after a time-frequency resource is allocated for the target sub-frame. generating a transmission signal occupying a resource with a size same as that of a time-domain resource in a target sub-frame, according to the time-domain resource size, wherein the target sub-frame is a partial sub-frame that is a start sub-frame of signal transmission as a result of contention, and/or an end sub-frame of signal transmission; and the time-domain resource size in the target sub-frame is a size of a time-domain resource to be possibly allocated for the target sub-frame when the target sub-frame is a start sub-frame of signal transmission, or is a size of a time-domain resource allocated for the target sub-frame when the target sub-frame is an end sub-frame of signal transmission; and transmitting the transmission signal, that has the same size of resources as the size of the time-domain resource allocated for the target sub-frame, after a time-frequency resource is allocated for the target sub-frame.
A switching apparatus comprising a plurality of parallel-connected current-conductive branches , each current-conductive branch including at least one respective gas tube switch , wherein the switching apparatus further includes an electrical circuit, characterised in that the electrical circuit includes in each current-conductive branch at least one switching element configured to passively synthesise a respective voltage difference in series with each gas tube switch so as to control the distribution of current (I) between the parallel-connected current-conductive branches .
An optical adapter supporting structure for optical adapters , comprising: - a support base ; - a first pair of retaining members comprising a first retaining member and an opposite second retaining member , the first and second retaining members projecting from the support base along an insertion direction (Z-Z) and being mutually spaced apart along a transversal direction (Y-Y), perpendicular to the insertion direction (Z-Z), for receiving selectively a first optical adapter and a second optical adapter therebetween; wherein: - the first retaining member comprises a first retaining head configured to retain the first optical adapter along the insertion direction (Z-Z) and projecting towards the opposite second retaining member , the first retaining head being formed at a first distance (D1) from the support base , measured along the insertion direction (Z-Z); - the second retaining member is resiliently deformable and comprises a second retaining head , configured to retain the second optical adapter along the insertion direction (Z-Z) and projecting towards the opposite first retaining member , the second retaining head being formed at a second distance (D2) from the support base , measured along the insertion direction (Z-Z), lower than the first distance (D1). - a support base ; - a first pair of retaining members comprising a first retaining member and an opposite second retaining member , the first and second retaining members projecting from the support base along an insertion direction (Z-Z) and being mutually spaced apart along a transversal direction (Y-Y), perpendicular to the insertion direction (Z-Z), for receiving selectively a first optical adapter and a second optical adapter therebetween; - the first retaining member comprises a first retaining head configured to retain the first optical adapter along the insertion direction (Z-Z) and projecting towards the opposite second retaining member , the first retaining head being formed at a first distance (D1) from the support base , measured along the insertion direction (Z-Z); - the second retaining member is resiliently deformable and comprises a second retaining head , configured to retain the second optical adapter along the insertion direction (Z-Z) and projecting towards the opposite first retaining member , the second retaining head being formed at a second distance (D2) from the support base , measured along the insertion direction (Z-Z), lower than the first distance (D1).
Support bearing for a suspension spring between a superstructure of a vehicle and a wheel-guiding element of the vehicle, having at least two bearing parts which by means of an actuator are displaceable relative to one another at least approximately in the direction of the vehicle vertical axis, of which a first bearing part is fastened to the vehicle superstructure and the second bearing part forms a support for the suspension spring, characterized in that the actuator is formed by an electric motor which has a downstream stress wave gearbox and is able to rotate relative to one another the bearing parts that are supported on top of one another in the manner of a threaded spindle , wherein a deformable gearbox bushing of the stress wave gearbox as a so-called flexspline is connected in a form-fitting manner to the second bearing part that forms the suspension spring support and in a manner so as to be mutually displaceable to said second bearing part in the displacement direction of the two bearing parts or of the cylinder axis (A), and wherein the gearbox bushing in an external portion (B) that interacts with a hollow-cylindrical rotor of the electric motor that rotates about a or the cylinder axis (A) has an internal toothing (V) which can engage with an external toothing that is provided on a circular-cylindrical portion (K) of the first bearing part which is fixedly connected to the vehicle superstructure, and wherein the hollow-cylindrical rotor of the electric motor , when viewed in the axial direction of said cylinder axis (A), externally is circular-cylindrical and internally has an oval cross section on which the deformable gearbox bushing in the case of a rotating rotor rolls directly or with the intervention of a friction bearing or rolling bearing.
A functional truncated human GDE polypeptide, which is deleted of at least about 10, 20, 30, 40, 50, 60, 75, 90, 100, 125, 150, 175, 190, 200, 225, 250, 275, 300, 325, 350, 375, 400, 425, 450, 475, 500 or at least about 525 amino acids with respect to a reference full-length human GDE sequence, in particular a reference full-length human GDE sequence having an amino acid sequence as shown in SEQ ID NO:1, SEQ ID NO:40 or SEQ ID NO:41.
A method of operation for a network-facing provider edge, n-PE, device of a core network , the method comprising: receiving a customer frame from an access network , the customer frame having a first Virtual Local Area Network, VLAN, tag of a first predetermined bit length, the first VLAN tag including a first broadcast domain identifier and a first service instance identifier for a connection across the access network ; mapping the first service instance identifier of the first VLAN tag into a second VLAN tag of a second predetermined bit length greater than the first predetermined bit length, wherein the second VLAN tag designates, for the connection across the core network , both a second broadcast domain identifier and a second service instance identifier; forming a mapped frame from the received customer frame by replacing the first VLAN tag with the second VLAN tag, and encapsulating the customer frame within a provider address header. receiving a customer frame from an access network , the customer frame having a first Virtual Local Area Network, VLAN, tag of a first predetermined bit length, the first VLAN tag including a first broadcast domain identifier and a first service instance identifier for a connection across the access network ; mapping the first service instance identifier of the first VLAN tag into a second VLAN tag of a second predetermined bit length greater than the first predetermined bit length, wherein the second VLAN tag designates, for the connection across the core network , both a second broadcast domain identifier and a second service instance identifier; forming a mapped frame from the received customer frame by replacing the first VLAN tag with the second VLAN tag, and encapsulating the customer frame within a provider address header.
Electrofusion tape for welding together with plastics pipes in particular for use in a fixed-point fastening, consisting of a jacket element preferably of an electrically insulating plastics material, at least one heating element of electrically conductive plastics material and at least two contact elements for supplying electricity to the heating element , wherein the jacket element and the heating element take the form of tapes, wherein the jacket element surrounds the heating element at least in part, wherein the contact elements are arranged in the mutually opposing marginal regions of the heating element and extend parallel to one another along the heating element , characterized in that the jacket element and the heating element are formed as a co-extruded part and are fused to one another in the contact region and a displacement between the jacket element and the heating element is completely prevented.
An air compression device comprising: a compressor which generates compressed air, a housing which forms a housing space in which the compressor is housed, a cooling portion which is arranged at an outside of the housing and cools the compressed air, a controller which controls the compressor , and a protection cover which at least partially covers the cooling portion , characterized in that the air compression device further comprises: a dehumidifying portion which dehumidifies the compressed air passed through the cooling portion , wherein the controller and the dehumidifying portion are arranged below the cooling portion ; the protection cover includes a baffle plate laid below the cooling portion ; and the baffle plate is configured to interrupt an air flow from the cooling portion toward the controller and the dehumidifying portion . a compressor which generates compressed air, a housing which forms a housing space in which the compressor is housed, a cooling portion which is arranged at an outside of the housing and cools the compressed air, a controller which controls the compressor , and a protection cover which at least partially covers the cooling portion , characterized in that the air compression device further comprises: a dehumidifying portion which dehumidifies the compressed air passed through the cooling portion , wherein the controller and the dehumidifying portion are arranged below the cooling portion ; the protection cover includes a baffle plate laid below the cooling portion ; and the baffle plate is configured to interrupt an air flow from the cooling portion toward the controller and the dehumidifying portion . a dehumidifying portion which dehumidifies the compressed air passed through the cooling portion , wherein the controller and the dehumidifying portion are arranged below the cooling portion ; the protection cover includes a baffle plate laid below the cooling portion ; and the baffle plate is configured to interrupt an air flow from the cooling portion toward the controller and the dehumidifying portion .
An aerosol generator comprising: a conductive mesh material of 200 mesh (74μm) ±10% to 600 mesh (22μm) ±10% to retain a liquid in the interstices thereof; a wick in contact with the conductive mesh material to transfer liquid material to the conductive mesh; and at least two electrical leads attached to spaced apart locations along the mesh material to supply power that resistively heats the mesh material. a conductive mesh material of 200 mesh (74μm) ±10% to 600 mesh (22μm) ±10% to retain a liquid in the interstices thereof; a wick in contact with the conductive mesh material to transfer liquid material to the conductive mesh; and at least two electrical leads attached to spaced apart locations along the mesh material to supply power that resistively heats the mesh material.
An jack which is extensible comprising: - a first tubular body , - a second tubular body slidably associated with the first tubular body and movable along a predetermined longitudinal direction (A), - a third tubular body slidably associated with the second tubular body and movable along the longitudinal direction (A), - a base for support associated with an end of the third tubular body distal from the second tubular body , and - a safety device which is automated, provided with a lockbolt movable between a first position, wherein it allows relative sliding between the third tubular body and the second tubular body , and a second position wherein it prevents the third tubular body from sliding relative to the second tubular body , said jack being characterized in that the safety device is configured such that the lockbolt , when in the second position thereof, impedes relative sliding between the third tubular body and the second tubular body only in the direction in which the base moves away from the second tubular body . - a first tubular body , - a second tubular body slidably associated with the first tubular body and movable along a predetermined longitudinal direction (A), - a third tubular body slidably associated with the second tubular body and movable along the longitudinal direction (A), - a base for support associated with an end of the third tubular body distal from the second tubular body , and - a safety device which is automated, provided with a lockbolt movable between a first position, wherein it allows relative sliding between the third tubular body and the second tubular body , and a second position wherein it prevents the third tubular body from sliding relative to the second tubular body ,
A thermal cycling device comprising: a sample location ; a light source , wherein said light source is a source of fluorescence excitation; a light pipe comprising a light pipe section, the light pipe section comprising a first and a second end; a first heating means being a contact heat source, wherein said first heating means is configured to bring a sample or multiple samples at said sample location to at least about a first temperature; a second heating means being a source of electromagnetic radiation, wherein said second heating means is configured to bring a sample or to simultaneously bring multiple samples at said sample location to a second temperature by directing the electromagnetic radiation to the first light pipe section end and the light pipe section is configured to direct said electromagnetic radiation through its second end to the sample location and homogenize a spatial intensity distribution of the electromagnetic radiation by the means of reflection; at least one dichroic mirror ; and a camera configured to detect emitted fluorescence coming directly from the sample location transmitted by the light pipe section without being reflected off the walls of the light pipe. a light source , wherein said light source is a source of fluorescence excitation; a light pipe comprising a light pipe section, the light pipe section comprising a first and a second end; a first heating means being a contact heat source, wherein said first heating means is configured to bring a sample or multiple samples at said sample location to at least about a first temperature; a second heating means being a source of electromagnetic radiation, wherein said second heating means is configured to bring a sample or to simultaneously bring multiple samples at said sample location to a second temperature by directing the electromagnetic radiation to the first light pipe section end and the light pipe section is configured to direct said electromagnetic radiation through its second end to the sample location and homogenize a spatial intensity distribution of the electromagnetic radiation by the means of reflection; at least one dichroic mirror ; and a camera configured to detect emitted fluorescence coming directly from the sample location transmitted by the light pipe section without being reflected off the walls of the light pipe.
A method, comprising: deriving at a first user equipment, a first key based on a first security parameters and a key shared between a core network apparatus and the first user equipment; sending a notification of device-to-device services to a second user equipment; receiving a second security parameter from the second user equipment, wherein the second security parameter is a parameter for generating a second key based on the first key by an access network apparatus to which the first user equipment is registered; and deriving at the first user equipment, the second key based on the second security parameter and the first key, for protecting a device-to-device communication between the first user equipment and the second user equipment. deriving at a first user equipment, a first key based on a first security parameters and a key shared between a core network apparatus and the first user equipment; sending a notification of device-to-device services to a second user equipment; receiving a second security parameter from the second user equipment, wherein the second security parameter is a parameter for generating a second key based on the first key by an access network apparatus to which the first user equipment is registered; and deriving at the first user equipment, the second key based on the second security parameter and the first key, for protecting a device-to-device communication between the first user equipment and the second user equipment.
An abrasive article comprising: a body including: a bond material comprising an inorganic material comprising a ceramic material, wherein the ceramic material comprises a vitreous phase and a polycrystalline phase, wherein the polycrystalline phase comprises at least 15 wt% and not greater than 44 wt% zircon (ZrSiO 4 ) for a total weight of the bond material; abrasive agglomerates comprising silicon carbide contained within the bond material; and a permeability of at least 60, as measured by the average Darcy's number according to an air permeability test, as detailed in ASTM C577. a bond material comprising an inorganic material comprising a ceramic material, wherein the ceramic material comprises a vitreous phase and a polycrystalline phase, wherein the polycrystalline phase comprises at least 15 wt% and not greater than 44 wt% zircon (ZrSiO 4 ) for a total weight of the bond material; abrasive agglomerates comprising silicon carbide contained within the bond material; and a permeability of at least 60, as measured by the average Darcy's number according to an air permeability test, as detailed in ASTM C577.
A light-emitting diode, LED, module, comprising: a plurality of LEDs assembled on a flexible substrate, and a cover at least partly covering the plurality of LEDs, wherein the cover comprises a first constituent having elastic properties and a transformable second constituent inserted within said first constituent and adapted to, after transformation, form an interpenetrating polymer network to fix the shape of the LED module. a plurality of LEDs assembled on a flexible substrate, and a cover at least partly covering the plurality of LEDs, wherein the cover comprises a first constituent having elastic properties and a transformable second constituent inserted within said first constituent and adapted to, after transformation, form an interpenetrating polymer network to fix the shape of the LED module.
A control apparatus comprising: an image interface ; a communication unit adapted to transmit and receive data to and from a robot system that picks the article; and a processor configured to transmit picking information (S18) to the robot system through the communication unit , characterized in that : the image interface is adapted to obtain an instruction image that visually indicates, to an operator, information of an article to be picked, wherein the information of the article indicates a name, a code, a picking number, and a location of the article in a tray; and the processor is configured to generate the picking information (S18) of the article to be picked based on the instruction image . an image interface ; a communication unit adapted to transmit and receive data to and from a robot system that picks the article; and a processor configured to transmit picking information (S18) to the robot system through the communication unit , characterized in that : the image interface is adapted to obtain an instruction image that visually indicates, to an operator, information of an article to be picked, wherein the information of the article indicates a name, a code, a picking number, and a location of the article in a tray; and the processor is configured to generate the picking information (S18) of the article to be picked based on the instruction image . the image interface is adapted to obtain an instruction image that visually indicates, to an operator, information of an article to be picked, wherein the information of the article indicates a name, a code, a picking number, and a location of the article in a tray; and the processor is configured to generate the picking information (S18) of the article to be picked based on the instruction image .