mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a wireless communication circuitry supporting ultra-wideband, UWB, communication; and a processor configured to: perform a ranging operation to identify a distance between the electronic device and an external electronic device using the wireless communication circuitry; and while the electronic device and the external electronic device are within a defined distance from each other, receive a UWB signal including a medium access control, MAC, header and a MAC payload from the external electronic device; wherein the MAC payload includes a multiplexed information element, MPX IE (1901, 1902) including a transaction control field and an upper-layer frame fragment field, wherein the transaction control field including a transfer type field and a transaction identifier, ID, field indicating a unique value for a transaction, and wherein the upper-layer frame fragment field includes a USSID, UWB secure service identifier, (456, 496) identifying at least one service associated with the transaction. a wireless communication circuitry supporting ultra-wideband, UWB, communication; and a processor configured to: perform a ranging operation to identify a distance between the electronic device and an external electronic device using the wireless communication circuitry; and while the electronic device and the external electronic device are within a defined distance from each other, receive a UWB signal including a medium access control, MAC, header and a MAC payload from the external electronic device; perform a ranging operation to identify a distance between the electronic device and an external electronic device using the wireless communication circuitry; and while the electronic device and the external electronic device are within a defined distance from each other, receive a UWB signal including a medium access control, MAC, header and a MAC payload from the external electronic device; wherein the MAC payload includes a multiplexed information element, MPX IE (1901, 1902) including a transaction control field and an upper-layer frame fragment field, wherein the transaction control field including a transfer type field and a transaction identifier, ID, field indicating a unique value for a transaction, and wherein the upper-layer frame fragment field includes a USSID, UWB secure service identifier, (456, 496) identifying at least one service associated with the transaction.
An access hub (51, 52, 70, 150, 251, 252, 350, 650) for a flow system in a subsea oil and gas production system, the access hub comprising: a body defining a conduit (53, 153, 353) therethrough; a first connector configured to connect the body to a flowline connector for a jumper flowline (30, 230, 354, 530, 630) of the flow system; a second connector (56, 58, 74, 151, 256, 258, 351) configured to connect the body to an intervention apparatus; and a third connector for connecting the access hub to the jumper flowline (156, 266, 356, 656); wherein the access hub is configured to be in fluid communication with the jumper flowline (156, 266, 356, 656); and wherein, in use, the conduit provides an intervention path from the intervention apparatus to the flow system. a body defining a conduit (53, 153, 353) therethrough; a first connector configured to connect the body to a flowline connector for a jumper flowline (30, 230, 354, 530, 630) of the flow system; a second connector (56, 58, 74, 151, 256, 258, 351) configured to connect the body to an intervention apparatus; and a third connector for connecting the access hub to the jumper flowline (156, 266, 356, 656); wherein the access hub is configured to be in fluid communication with the jumper flowline (156, 266, 356, 656); and wherein, in use, the conduit provides an intervention path from the intervention apparatus to the flow system.
Process for providing a polypropylene composition comprising a branched polypropylene (b-PP), the process comprises the steps of: a) providing a polypropylene having a melt flow rate MFR 2 (230°C) of more than 1.0 g/10min; b) providing a thermally decomposing free radical-forming agent, c) providing bifunctionally unsaturated monomer(s) and/or multifunctionally unsaturated low molecular weight polymer(s), d) providing a linear polypropylene (l-PP) having a melt flow rate MFR 2 (230°C) of 10.0 to 50.0 g/10min, e) reacting the polypropylene of step a) with the thermally decomposing free radical-forming agent of step b) and the bifunctionally unsaturated monomer(s) and/or multifunctionally unsaturated low molecular weight polymer(s) of step c) obtaining thereby the branched polypropylene (b-PP), and f) reacting the branched polypropylene (b-PP) obtained in step e) with the linear polypropylene (l-PP) of step d), wherein the polypropylene composition and/or branched polypropylene (b-PP) has/have i) a melt flow rate MFR 2 (230°C) measured according to ISO 1133 of 18.0 to 35.0 g/10min, ii) a F 30 melt strength of more than 3.4 cN and a v 30 melt extensibility of more than 200 mm/s, wherein the F 30 melt strength and the v 30 melt extensibility are measured according to ISO 16790:2005. a) providing a polypropylene having a melt flow rate MFR 2 (230°C) of more than 1.0 g/10min; b) providing a thermally decomposing free radical-forming agent, c) providing bifunctionally unsaturated monomer(s) and/or multifunctionally unsaturated low molecular weight polymer(s), d) providing a linear polypropylene (l-PP) having a melt flow rate MFR 2 (230°C) of 10.0 to 50.0 g/10min, e) reacting the polypropylene of step a) with the thermally decomposing free radical-forming agent of step b) and the bifunctionally unsaturated monomer(s) and/or multifunctionally unsaturated low molecular weight polymer(s) of step c) obtaining thereby the branched polypropylene (b-PP), and f) reacting the branched polypropylene (b-PP) obtained in step e) with the linear polypropylene (l-PP) of step d), i) a melt flow rate MFR 2 (230°C) measured according to ISO 1133 of 18.0 to 35.0 g/10min, ii) a F 30 melt strength of more than 3.4 cN and a v 30 melt extensibility of more than 200 mm/s, wherein the F 30 melt strength and the v 30 melt extensibility are measured according to ISO 16790:2005.
Device for measurement of a magnetic field component comprising a detector (3, 13, 14) configured to measure the amplitude of an output signal at an oscillation frequency of an excitation source and to use it to deduce the component of the magnetic field to be measured starting from the value of a resonance gradient characteristic of a proportionality relation between said amplitude and the magnetic field to be measured, characterised in that it comprises a main excitation source outputting a measurement signal oscillating at a main oscillation frequency and a secondary excitation source outputting a reference signal with a known amplitude oscillating at a secondary oscillation frequency different from the main oscillation frequency, and in that the detector is also configured to measure the amplitude of the output signal at a harmonic of the secondary oscillation frequency and to use it to deduce the value of said resonance gradient starting from said amplitude of the output signal at a harmonic of the secondary oscillation frequency and the known amplitude of the reference signal.
A surgical instrument for perforating a human or animal body and injecting a pharmaceutical product into that same body, comprising a hollow elongated hand piece suitable for receiving a pharmaceutical product container and a cylindrical support making it possible to house the container in the hand piece, driving means making it possible to set the support/container assembly in rotation around a longitudinal axis of the container, the cylindrical support making it possible to connect a perforating needle to the container, the hand piece being provided with an axial passage for the needle, characterized in that the cylindrical support comprises a tubular wall suitable for receiving the container and including contact zones for a connection secured in rotation between the container and the cylindrical support formed by material bridges remaining between recesses formed along at least one circumferential row line, the material bridges having bends toward the inside of the cylindrical support to grip the container.
A method for producing a reticulate dairy-based product, said method comprising the steps of: (a) subjecting a dairy-based product to an extrusion process to obtain multiple individual threads of the dairy-based product, (b) structuring said multiple individual threads of the dairy-based product to obtain a reticulate dairy-based product comprising a coherent network of multiple entangled individual threads of the dairy-based product, wherein the multiple individual threads of the dairy-based product have a diameter below 4 mm and wherein the reticulate dairy-based product has a density below 1.0 g/cm 3. (a) subjecting a dairy-based product to an extrusion process to obtain multiple individual threads of the dairy-based product, (b) structuring said multiple individual threads of the dairy-based product to obtain a reticulate dairy-based product comprising a coherent network of multiple entangled individual threads of the dairy-based product, wherein the multiple individual threads of the dairy-based product have a diameter below 4 mm and wherein the reticulate dairy-based product has a density below 1.0 g/cm 3.
A sheet-like heating element comprising a fabric that contains warp threads and weft threads, wherein a) the thread material of from 5% to 90% of the warp threads and/or weft threads is electrically conductive; and b) at least 50% of the thread material surface is coated with a coating material containing carbon nanotubes, characterised in that the heating element has at least one heat insulating layer spaced from the fabric by 0.1 to 5 mm, wherein an electrical insulating layer is arranged around the coating material. a) the thread material of from 5% to 90% of the warp threads and/or weft threads is electrically conductive; and b) at least 50% of the thread material surface is coated with a coating material containing carbon nanotubes,
A rotary milking system for milking a plurality of milking animals comprising a rotary milking platform, a plurality of milking stalls arranged on the platform, four milking teat cups in each milking stall configured to receive milk during a milking process in the respective milking stall and four robotic manipulation devices (100, 200, 300, 400), each one configured to fetch one milking teat cup (21a-d, 74) as a milking stall with an animal passes by the robotic manipulation device (100, 200, 300, 400) and provide a movement of the milking teat cup to a position below the teats of an animal, the milking system comprises cleaning teat cups (21a-d, 76) and that each robotic manipulation device(100, 200, 300, 400) is configured to move one cleaning teat cup (21a-d, 76) and one milking teat cup (21a-d, 74) by a common movement to said position below the teats before it attaches the cleaning teat cup (21a-d, 76) and the milking teat cup (21a-d, 74) to the same teat of the animal, characterized in that the cleaning teat cup and the milking teat cup which are attached to the same teat of an animal by one of the robotic manipulation devices (100, 200, 300, 400) are two separate teat cups (74, 76) and wherein each robotic manipulation device (100, 200, 300, 400) comprises at least one cover element (81, 84, 88) movably arranged between a first position in which it covers the teat receiving opening of one of the teat cups (74, 76) and a second position in which it uncover the teat receiving opening of said teat cup (74, 76).
A combination product comprising a Bcl-2 inhibitor and an MDM2 inhibitor, wherein the Bcl-2 inhibitor is the following compound or a pharmaceutically acceptable salt or solvate thereof: wherein the MDM2 inhibitor is APG-115 or a pharmaceutically acceptable salt or solvate thereof, having the following structure:
An infusion pump comprising a pump mechanism for pressing an infusion tube and feeding infusion liquid in the infusion tube in one direction, a pump body equipped with the pump mechanism, a door for covering an infusion tube attachment position in the pump body in a freely opening and closing manner, and a door lock mechanism for locking the door closed, wherein the pump body comprises a clamp holding part for holding a roller clamp equipped with a roller, and roller movement means for moving the roller of the roller clamp held by the clamp holding part, the roller clamp being configured to block or release the infusion tube in response to movement of the roller, wherein the roller movement means, operating in coordination with manipulation of the door lock mechanism, is configured to locate the roller of the roller clamp at a position for releasing the infusion tube when the door lock mechanism is in a locked state, and is configured to locate the roller of the roller clamp at a position for blocking the infusion tube when the door lock mechanism is in an unlocked state, wherein the door lock mechanism is configured to lock or unlock the door in response to turning manipulation of a lock lever, wherein the roller movement means comprises a manipulation force transmission mechanism which converts a turning manipulation force of the lock lever into a force for moving the roller of the roller clamp held by the clamp holding part, and wherein the roller movement means is configured to locate the roller of the roller clamp at the infusion tube release position when the lock lever of the door lock mechanism is manipulated to a locked position, and to locate the roller of the roller clamp at the infusion tube block position when the lock lever of the door lock mechanism is manipulated to an unlocked position.
A method for quantifying the amount of a nourishing composition that is being consumed by a baby comprising: sensing a baby's swallows during consumption of a nourishing composition; determining a volume of the nourishing composition that is being consumed by the baby based on the number of swallows sensed; and providing an indication to a caregiver when the determined volume of the nourishing composition consumed by the baby equals or exceeds a signal threshold value; characterised in that the signal threshold value is set such that it indicates a stomach fullness volume, wherein the threshold value is recalculated as the baby grows if the stomach fullness volume increases. sensing a baby's swallows during consumption of a nourishing composition; determining a volume of the nourishing composition that is being consumed by the baby based on the number of swallows sensed; and
A hoof shoe for hoofed animals, comprising a shell-like upper shoe engaging at least partially around the horn capsule and the hoof sole, with lateral boundary walls, a clamping means for fixing the hoof shoe to the horn capsule, as well as a sole extending over the entire hoof tread area and connected to the upper shoe, wherein the clamping means essentially comprises a first and a second strap (3, 4), characterised in that the first and the second strap (3, 4) can be directly fixed to one another in the front region and with a cross-bar in the rear region, and that the straps (3, 4) are connected to the upper shoe detachably at at least one front fixing point and fixedly at at least one rear fixing point.
A wheel loader comprising: a cab; an engine room disposed rearward of the cab, an engine disposed inside the engine room; a first exhaust processing device and a second exhaust processing device disposed over the engine; an air cleaner disposed in the engine room in front of the first exhaust processing device and the second exhaust processing device; a tank; characterized in that the tank is disposed between the cab and the air cleaner in a vehicle front-back direction; wherein, a rear surface of the tank has a lower rear surface part and an upper rear surface part positioned above the lower rear surface part and positioned forward of the lower rear surface part; and at least a portion of the air cleaner is disposed facing the upper rear surface part. a cab; an engine room disposed rearward of the cab, an engine disposed inside the engine room; a first exhaust processing device and a second exhaust processing device disposed over the engine; an air cleaner disposed in the engine room in front of the first exhaust processing device and the second exhaust processing device; a tank; characterized in that the tank is disposed between the cab and the air cleaner in a vehicle front-back direction; wherein, a rear surface of the tank has a lower rear surface part and an upper rear surface part positioned above the lower rear surface part and positioned forward of the lower rear surface part; and at least a portion of the air cleaner is disposed facing the upper rear surface part.
Screw spindle pump, having a spindle housing in which a drive spindle and at least one running spindle meshing therewith are received in spindle bores, and having an external housing which accommodates the spindle housing, an axial inlet connection and a radial outlet connection being provided on said external housing, wherein the spindle housing has an axial fluid outlet for the fluid conveyed via the drive spindle and the running spindle (3, 4) through the spindle housing, as well as having a drive motor comprising a drive shaft which runs through a bore in a housing wall, which axially closes the interior of the external housing, and which is coupled to the drive spindle, characterized in that a part of the fluid flowing out of the fluid outlet of the spindle housing flows through the seal-free bore along the drive shaft into the drive motor, cools this drive motor and flows back into the external housing through the bore along the drive shaft or through one or more through-openings in the housing wall.
A method for operating a charging system for supplying, to a power storage mechanism mounted in a vehicle, electric power supplied through a coupling instrument from a power supply external to the vehicle, said method comprising the steps of: operating to perform a predetermined process when said coupling instrument is connected to said vehicle in a state where said coupling instrument is connected to said power supply; characterized by operating to perform said predetermined process before said coupling instrument is connected to said power supply, when said coupling instrument is connected to said vehicle in a state where said coupling instrument is not connected to said power supply. operating to perform a predetermined process when said coupling instrument is connected to said vehicle in a state where said coupling instrument is connected to said power supply; characterized by operating to perform said predetermined process before said coupling instrument is connected to said power supply, when said coupling instrument is connected to said vehicle in a state where said coupling instrument is not connected to said power supply.
Busbar system comprising at least one busbar, having a base profile with a profile foot, a profile head and a profile web connecting them, at least one cover element and at least one spacer, wherein the spacer has at least one detent element (4, 5), a base, at least one holding device and a clamping element, wherein the spacer has at least one fixing device, wherein the fixing device is operatively connected via at least one fixing element (83, 84) to the holding device of the spacer, wherein the fixing element (83, 84) of the fixing device engages with least at one holding element (61, 62) of the holding device of the spacer from behind in a latching manner, characterised in that the fixing device fits over at least one free end (21, 22) of the cover element in a fixing manner and engages the busbar from behind via at least one fixing web (81, 82) in a fixing manner, and in that the clamping element of the spacer is operatively connected at least in part to the profile foot and the profile head of the base profile of the busbar.
A network system for realizing mobile IP management, comprising: a control function entity and a bearer function entity of a transmission layer, the bearer function entity performing service bearing under the control of the control function entity; the control function entity of the transmission layer comprises a mobility control, MC, entity and the bearer function entity comprises a mobility forwarding, MF, entity; wherein the MC entity is configured to process signal sent from a mobile node, MN, and transmit a processing result to the MF entity; and the MF entity is configured to encapsulate/deencapsulate and forward mobile service related packets under the control of the MC entity; wherein the MN is configured to obtain a care-of address from the foreign network and carry the care-of address in a mobility registration signal and the mobility registration signal further comprises the MN's identity and password for using mobile services; the MN is configured to transmit the mobility registration signal to a home MC entity when the MN is in a foreign network, or the MN is configured to transmit the mobility registration signal to the home MC entity via a foreign MC entity of a foreign network where the MN resides when the MN is in the foreign network; the MN is configured to transmit a route optimization request signal to the home MC entity and the home MC entity is configured to send the route optimization request signal to a MC entity in the domain on which a correspondent node, CN, resides after the home MC entity approved the route optimization request signal; the MC entity in which the CN resides is configured to return a route optimization response signal to the home MC entity after receiving the route optimization request signal; the home MC entity is configured to deliver the route optimization response signal to the MN;after approving the route optimization response signal, the MC entity in which the CN resides is configured to transmit a mobility forwarding control signal to a MF entity adjacent to the CN, to control the MF entity adjacent to the CN to process and forward mobile packets.