mhurhangee/ep-ind-claims huggingface dataset:
An inlet assembly for a vehicle in which a power storage device mounted inside can be charged using an external power supply, comprising: an inlet to which a connector that is connected to the external power supply can be connected; an inlet base for securing the inlet to the vehicle; and a cylindrical guide wall that surrounds the inlet and is suitable for guiding the connector into connection with the inlet, characterized in that a drain hole (20a, 20b, 20c, 20d) is provided in the inlet base, and a drainage inducing member that promotes drainage is arranged on an edge portion of the drain hole (20a, 20b, 20c, 20d), on a back side of the inlet base, the back side being a side opposite the side on which the inlet is provided. an inlet to which a connector that is connected to the external power supply can be connected; an inlet base for securing the inlet to the vehicle; and a cylindrical guide wall that surrounds the inlet and is suitable for guiding the connector into connection with the inlet, characterized in that a drain hole (20a, 20b, 20c, 20d) is provided in the inlet base, and a drainage inducing member that promotes drainage is arranged on an edge portion of the drain hole (20a, 20b, 20c, 20d), on a back side of the inlet base, the back side being a side opposite the side on which the inlet is provided.
A ceramic watch strap, comprising: outer connecting pieces, each including a pair of pin grooves formed at one side thereof and a pair of insertion grooves formed at a back side thereof to communicate with the corresponding pin grooves; a central connecting piece having a pair of pin holes penetrating the central connecting piece to correspond to the pin grooves of the outer connecting pieces; connecting pins each including a fastening part having fastening holes formed at opposite ends of the fastening part; and fastening pins, wherein the fastening part of each of the connecting pins is inserted into the pin groove of the outer connecting piece through the pin hole of the central connecting piece; characterized by the fastening pins having a latching step (formed at one end of the fastening pin, and the fastening pin is press-fitted into the fastening hole of the connecting pin through the insertion groove of the outer connecting piece and is supported on the connecting pin by the latching step. outer connecting pieces, each including a pair of pin grooves formed at one side thereof and a pair of insertion grooves formed at a back side thereof to communicate with the corresponding pin grooves; a central connecting piece having a pair of pin holes penetrating the central connecting piece to correspond to the pin grooves of the outer connecting pieces; connecting pins each including a fastening part having fastening holes formed at opposite ends of the fastening part; and fastening pins, wherein the fastening part of each of the connecting pins is inserted into the pin groove of the outer connecting piece through the pin hole of the central connecting piece; characterized by the fastening pins having a latching step (formed at one end of the fastening pin, and the fastening pin is press-fitted into the fastening hole of the connecting pin through the insertion groove of the outer connecting piece and is supported on the connecting pin by the latching step.
Use of a composition comprising calcitriol or analogs thereof for, in vitro, improving the ability of a spermatozoa to bind to an egg; wherein said analogs are agonists which can bind and release the non-genomic effect via VDR (Vitamin D receptor) in spermatozoa OR wherein said analogs are selected from the group consisting of the list of table 1 and 1,25 2 Lumisterol 3 and 25-OHD 3; wherein calcitriol or analogs thereof is present at a concentration of 10 -15 10 -4 M.
Filtering system for heating, ventilation or air conditioning installation, comprising: - a filter manufactured in a filtering material, intended to be passed through by a flow of air and comprising two faces (S1, S2) parallel to one another and at right angles to the flow of air, - at least one clogging measurement unit comprising an emitter arranged to emit a beam and a receiver arranged to receive said beam, - a processing unit arranged to control the emission of the beam by said emitter and to process the signal generated by the receiver after reception of the beam, characterized in that: - the clogging measurement unit is embedded in said filter, - said emitter is arranged in relation to said receiver to emit a beam in a direction transversal to that of the flow of air and situated in a plane parallel to the faces (S1, S2) of the filter. - a filter manufactured in a filtering material, intended to be passed through by a flow of air and comprising two faces (S1, S2) parallel to one another and at right angles to the flow of air, - at least one clogging measurement unit comprising an emitter arranged to emit a beam and a receiver arranged to receive said beam, - a processing unit arranged to control the emission of the beam by said emitter and to process the signal generated by the receiver after reception of the beam, - the clogging measurement unit is embedded in said filter, - said emitter is arranged in relation to said receiver to emit a beam in a direction transversal to that of the flow of air and situated in a plane parallel to the faces (S1, S2) of the filter.
A method for use in managing two or more mobile devices (108, 109; 308, 309) that are collocated, the method comprising: determining a set of tasks to be performed collectively by at least a first mobile device (108; 308) comprising a first set of subsystems and a second mobile device (109; 309) comprising a second set of subsystems, while the first and second mobile devices are collocated during a period of time in the future after a start of travel; assigning a first task of the set of tasks to be performed by the first mobile device based on the first set of subsystems; and assigning a second task of the set of tasks to be performed by the second mobile device based on the second set of subsystems; wherein the first and second sets of subsystems are different from one another with regard to at least one subsystem; wherein at least one of assigning the first task or assigning the second task is based on which subsystems of the first set of subsystems or the second set of subsystems, respectively, are available, and characterized in that assigning the first task or assigning the second task is further based on a schedule for activities performed on the available subsystems. determining a set of tasks to be performed collectively by at least a first mobile device (108; 308) comprising a first set of subsystems and a second mobile device (109; 309) comprising a second set of subsystems, while the first and second mobile devices are collocated during a period of time in the future after a start of travel; assigning a first task of the set of tasks to be performed by the first mobile device based on the first set of subsystems; and assigning a second task of the set of tasks to be performed by the second mobile device based on the second set of subsystems; wherein the first and second sets of subsystems are different from one another with regard to at least one subsystem; wherein at least one of assigning the first task or assigning the second task is based on which subsystems of the first set of subsystems or the second set of subsystems, respectively, are available, and characterized in that assigning the first task or assigning the second task is further based on a schedule for activities performed on the available subsystems.
An uplink frequency selection scheduling method, comprising: receiving, by a base station, sounding reference signals, SRS, sent from User Equipment, UE; determining a physical resource block, PRB, interference intensity by calculating said PRB interference intensity based on average power of said PRB and average PRB power in a full bandwidth in frequency domain; determining PRB scheduling priority based on SRS channel quality and said PRB interference intensity; performing uplink frequency selection scheduling based on said scheduling priority, wherein determining the PRB scheduling priority is based on: SP = SINR / 1 + PI / PN where SP is said scheduling priority, SINR is said SRS channel quality corresponding to a signal to interference plus noise ratio, PN is average noise power, and PI is said PRB interference intensity. receiving, by a base station, sounding reference signals, SRS, sent from User Equipment, UE; determining a physical resource block, PRB, interference intensity by calculating said PRB interference intensity based on average power of said PRB and average PRB power in a full bandwidth in frequency domain; determining PRB scheduling priority based on SRS channel quality and said PRB interference intensity; performing uplink frequency selection scheduling based on said scheduling priority, wherein determining the PRB scheduling priority is based on: SP = SINR / 1 + PI / PN where SP is said scheduling priority, SINR is said SRS channel quality corresponding to a signal to interference plus noise ratio, PN is average noise power, and PI is said PRB interference intensity.
Isolated recombinant chimeric construct comprising at least one peptide comprised in the constant region of a mammalian immunoglobulin selected from the group consisting of human IgE domains C H 1, C H 2, C H 3 and C H 4, IgM domains C H 1, C H 2, C H 3 and C H 4, human IgA domains C H 1, C H 2 and C H 3, human IgG2 domains C H 1, C H 2 and C H 3, human IgG3 domains C H 1, C H 2 and C H 3, human IgG4 domains C H 1, C H 2 and C H 3, human IgG1 domains C H 1, C H 2 and C H 3, and constant immunoglobulin domains derived from mice, rats, horses, dogs, cats and other mammalian animals, and an avian component selected from the group consisting of the extracellular portion of an avian high-affinity IgY Fc receptor or the extracellular portion of an avian FcR-related molecule wherein the peptide and the avian component are covalently bound to each other, and wherein the construct is capable of detecting antigen- or allergen-specific IgY antibodies by utilizing detection procedures for mammalian immunoglobulins.
A drive system for a pump, the drive system comprising: a first housing defining an internal pressure chamber, the internal pressure chamber configured to be filled with a working fluid; a fluid displacement member (52a, 52b) at least partially bounding the internal pressure chamber; and a reciprocating member disposed within the internal pressure chamber; wherein the reciprocating member is configured to pull the fluid displacement member through a suction stroke and the working fluid is configured to push the fluid displacement member through a pumping stroke, and characterized in that the reciprocating member is movable relative to the fluid displacement member. a first housing defining an internal pressure chamber, the internal pressure chamber configured to be filled with a working fluid; a fluid displacement member (52a, 52b) at least partially bounding the internal pressure chamber; and a reciprocating member disposed within the internal pressure chamber; wherein the reciprocating member is configured to pull the fluid displacement member through a suction stroke and the working fluid is configured to push the fluid displacement member through a pumping stroke, and characterized in that the reciprocating member is movable relative to the fluid displacement member.
An array substrate, comprising: a display area DA; and a non-display area NA, characterised in that the non-display area comprises a pad portion (410, 510) comprising a plurality of pad rows (410a, 410b, 410c; 510a, 510b, 510c), each pad row comprising a plurality of pads P for connection to corresponding bumps of an integrated circuit, pairs of pads within a row being spaced apart from one another about a centre line, each pad in a row being electrically connected to a pad in an adjacent row, wherein the connected pads in adjacent rows are offset by different distances from the centre line; and the pads within a pair of pads are symmetrically arranged with respect to the centre line. a display area DA; and a non-display area NA, characterised in that the non-display area comprises a pad portion (410, 510) comprising a plurality of pad rows (410a, 410b, 410c; 510a, 510b, 510c), each pad row comprising a plurality of pads P for connection to corresponding bumps of an integrated circuit, pairs of pads within a row being spaced apart from one another about a centre line, each pad in a row being electrically connected to a pad in an adjacent row, wherein the connected pads in adjacent rows are offset by different distances from the centre line; and the pads within a pair of pads are symmetrically arranged with respect to the centre line.
A method for simulating film grain in video in a video receiver, comprising: - receiving film grain information only with each I picture characterizing film grain in an original video image; - decoding the received film grain information; - performing film grain simulation by a film grain simulator within the video receiver on a sequence of decoded video pictures in accordance with the decoded film grain information applied in decode order to the sequence of decoded video pictures, wherein the decode order of the sequence of decoded video pictures is different from a display order of the sequence of decoded video pictures. - receiving film grain information only with each I picture characterizing film grain in an original video image; - decoding the received film grain information; - performing film grain simulation by a film grain simulator within the video receiver on a sequence of decoded video pictures in accordance with the decoded film grain information applied in decode order to the sequence of decoded video pictures, wherein the decode order of the sequence of decoded video pictures is different from a display order of the sequence of decoded video pictures.
A feeding system for feeding groups of rod-like elements for a tobacco industry machine, wherein the group comprises at least two rod-like elements arranged coaxially next to each other, the feeding system comprising: - a container for the rod-like elements; - a single element feeder for feeding individual rod-like elements from the container and comprising: ∘ a single-layer duct and ∘ an outlet formed by a feeding groove of a feeding wheel and a circumferential surface of a shoving away wheel; - an intermediate storage for transferring the rod-like elements from the single element feeder along a storage duct to an elements group feeder, wherein an outlet of the storage duct has a tilting track forming a recess for stopping the rod-like elements; - wherein the elements group feeder comprises: ∘ a transporting duct connected to the storage duct; and ∘ a transporter comprising shovels, wherein the shovels are configured to transport the groups of the rod-like elements one after the other along the transporting duct from the storage duct to an outlet duct; - and a pushing unit comprising a reciprocally movable pusher, configured to eject the group of the rod-like elements from the outlet duct. - a container for the rod-like elements; - a single element feeder for feeding individual rod-like elements from the container and comprising: ∘ a single-layer duct and ∘ an outlet formed by a feeding groove of a feeding wheel and a circumferential surface of a shoving away wheel; ∘ a single-layer duct and ∘ an outlet formed by a feeding groove of a feeding wheel and a circumferential surface of a shoving away wheel; - an intermediate storage for transferring the rod-like elements from the single element feeder along a storage duct to an elements group feeder, wherein an outlet of the storage duct has a tilting track forming a recess for stopping the rod-like elements; - wherein the elements group feeder comprises: ∘ a transporting duct connected to the storage duct; and ∘ a transporter comprising shovels, wherein the shovels are configured to transport the groups of the rod-like elements one after the other along the transporting duct from the storage duct to an outlet duct; ∘ a transporting duct connected to the storage duct; and ∘ a transporter comprising shovels, wherein the shovels are configured to transport the groups of the rod-like elements one after the other along the transporting duct from the storage duct to an outlet duct; - and a pushing unit comprising a reciprocally movable pusher, configured to eject the group of the rod-like elements from the outlet duct.
A sandwich cookie apparatus, comprising an accommodation beam having a base body and a plurality of accommodation elements being located at the base body to each accommodate a cover for a sandwich cookie, characterised in that the accommodation elements are designed to be movable with respect to the base body between an activated position and a deactivated position and are arranged at the base body such that they can attain the activated position and the deactivated position independently from the other accommodation elements, and a missing cookie detection apparatus is present, the apparatus being designed such that it issues an error signal when a cover for a sandwich cookie is missing, and the accommodation element being associated with the void is moved from the activated position into the deactivated position due to the error signal.
A method performed by a wireless device configured to operate in a wireless communication system, the method comprising: establishing a dual connectivity with a master node, MN, related to a master cell group, MCG, and a secondary node, SN, related to a secondary cell group, SCG; establishing a signaling radio bearer-3, SRB3, which enables a radio resource control, RRC, protocol data unit, PDU, for the SN to be sent directly between the wireless device and the SN; detecting (S 1700) a radio link failure, RLF, of the MCG; upon detecting the RLF of the MCG: i) transmitting an MCG failure information message related to the RLF of the MCG to the SN via the SRB3; and ii) starting a timer; and upon expiry of the timer, performing a connection re-establishment procedure, wherein the connection re-establishment procedure includes i) indicating that the connection re-establishment procedure is triggered after transmitting the MCG failure information message, and ii) indicating a SCG configuration related to the transmission of the MCG failure information message. establishing a dual connectivity with a master node, MN, related to a master cell group, MCG, and a secondary node, SN, related to a secondary cell group, SCG; establishing a signaling radio bearer-3, SRB3, which enables a radio resource control, RRC, protocol data unit, PDU, for the SN to be sent directly between the wireless device and the SN; detecting (S 1700) a radio link failure, RLF, of the MCG; upon detecting the RLF of the MCG: i) transmitting an MCG failure information message related to the RLF of the MCG to the SN via the SRB3; and ii) starting a timer; and i) transmitting an MCG failure information message related to the RLF of the MCG to the SN via the SRB3; and ii) starting a timer; and upon expiry of the timer, performing a connection re-establishment procedure, wherein the connection re-establishment procedure includes i) indicating that the connection re-establishment procedure is triggered after transmitting the MCG failure information message, and ii) indicating a SCG configuration related to the transmission of the MCG failure information message.
A robot lawnmower comprising: a body; a drive system carried by the body and configured to maneuver the robot lawnmower across a lawn (20, 1020); a controller carried by the body and in communication with the drive system; a detachable manual push/pull mower handle or a foldable manual push/pull mower handle attached to the body; characterized by: a handle sensor connected to the controller; wherein the controller is configured to operate the drive system in an autonomous mode when the handle sensor detects absence of the detachable manual push/pull mower handle or when the handle sensor detects that the foldable manual push/pull mower handle is folded; and wherein the controller is configured to operate the drive system in a manual mode when the handle sensor detects presence of the detachable manual push/pull mower handle or when the handle sensor detects that the foldable manual push/pull mower handle is unfolded. a body; a drive system carried by the body and configured to maneuver the robot lawnmower across a lawn (20, 1020); a controller carried by the body and in communication with the drive system; a detachable manual push/pull mower handle or a foldable manual push/pull mower handle attached to the body; characterized by: a handle sensor connected to the controller; wherein the controller is configured to operate the drive system in an autonomous mode when the handle sensor detects absence of the detachable manual push/pull mower handle or when the handle sensor detects that the foldable manual push/pull mower handle is folded; and wherein the controller is configured to operate the drive system in a manual mode when the handle sensor detects presence of the detachable manual push/pull mower handle or when the handle sensor detects that the foldable manual push/pull mower handle is unfolded. a handle sensor connected to the controller; wherein the controller is configured to operate the drive system in an autonomous mode when the handle sensor detects absence of the detachable manual push/pull mower handle or when the handle sensor detects that the foldable manual push/pull mower handle is folded; and wherein the controller is configured to operate the drive system in a manual mode when the handle sensor detects presence of the detachable manual push/pull mower handle or when the handle sensor detects that the foldable manual push/pull mower handle is unfolded.
Concrete mixture for the production of concrete construction elements, preferably made of ultra-high performance concrete (UHPC), comprising: a) a binder component comprising Portland cement clinker, granulated blast furnace slag and at least one setting regulator in the form of a calcium sulphate component, b) at least one superplasticizer, c) Preferably fibers, particularly preferably steel fibers, d) an aggregate component comprising a sand component, preferably in an amount (dry mass) of sand component of 5 to 60 ma.%, preferably 15 to 60 ma.%, particularly preferably 35 to 55 ma.%, based on the total mass of the concrete mixture, e) Mixing water, characterized in that the sand component comprises at least one finest sand with a d 95 value of 500 to 800 μm, preferably 620 to 750 μm, according to ISO 13320:2020-01, and an equivalent diameter d' of 300 to 470 μm, preferably 300 to 390 μm, particularly preferably 310 to 370 μm, according to ISO 13320:2020-01 and DIN 66145:1976-04, and the binder component consists of at least 95 ma.%, particularly preferably of 100 ma.%, of granulated blast furnace slag, Portland cement clinker and setting regulator. a) a binder component comprising Portland cement clinker, granulated blast furnace slag and at least one setting regulator in the form of a calcium sulphate component, b) at least one superplasticizer, c) Preferably fibers, particularly preferably steel fibers, d) an aggregate component comprising a sand component, preferably in an amount (dry mass) of sand component of 5 to 60 ma.%, preferably 15 to 60 ma.%, particularly preferably 35 to 55 ma.%, based on the total mass of the concrete mixture, e) Mixing water, the sand component comprises at least one finest sand with a d 95 value of 500 to 800 μm, preferably 620 to 750 μm, according to ISO 13320:2020-01, and an equivalent diameter d' of 300 to 470 μm, preferably 300 to 390 μm, particularly preferably 310 to 370 μm, according to ISO 13320:2020-01 and DIN 66145:1976-04, and the binder component consists of at least 95 ma.%, particularly preferably of 100 ma.%, of granulated blast furnace slag, Portland cement clinker and setting regulator.