mhurhangee/ep-ind-claims huggingface dataset:
A heavy duty tire comprising a tread composed of a rubber composition comprising 30 parts by mass or more of a silica having 175 m 2 /g or more of a nitrogen adsorption specific surface area (N 2 SA) as measured by a BET method according to ASTM D3037-93, based on 100 parts by mass of a rubber component, wherein the rubber component comprises 20% by mass or more of a styrene-butadiene rubber and 20% by mass or more of an isoprene-based rubber, characterized in that the tread has 3.0% or more and 7.0% or less of difference between a ratio S1 of a circumferential groove (3, 4, 5) area to a contact area and a ratio S2 of a transverse groove (9, 15, 21) area to the contact area, wherein the transverse groove (9, 15, 21) is a groove or sipe where a straight line joining both ends in a width direction is inclined at an angle of 0 to 30° relative to a tire width direction, and wherein the difference between S1 and S2 is measured when the tread is pressed against a plane surface with a normal load applied thereto in a normal state where it is mounted to a normal rim and inflated to a normal internal pressure, the normal rim being a rim defined for the tire by a standard on which the tire is based, the normal inner pressure being a pneumatic pressure defined for the tire by the standard, and the normal load being a load defined for the tire by the standard. wherein the rubber component comprises 20% by mass or more of a styrene-butadiene rubber and 20% by mass or more of an isoprene-based rubber, characterized in that the tread has 3.0% or more and 7.0% or less of difference between a ratio S1 of a circumferential groove (3, 4, 5) area to a contact area and a ratio S2 of a transverse groove (9, 15, 21) area to the contact area, wherein the transverse groove (9, 15, 21) is a groove or sipe where a straight line joining both ends in a width direction is inclined at an angle of 0 to 30° relative to a tire width direction, and wherein the difference between S1 and S2 is measured when the tread is pressed against a plane surface with a normal load applied thereto in a normal state where it is mounted to a normal rim and inflated to a normal internal pressure, the normal rim being a rim defined for the tire by a standard on which the tire is based, the normal inner pressure being a pneumatic pressure defined for the tire by the standard, and the normal load being a load defined for the tire by the standard.
Method for operating a pressure control system, in particular for vehicles, having a multi-stage compressor, wherein a multiply compressed pressure medium is provided (St1.1, St2.5) by the multi-stage compressor for the purposes of filling a pressure medium reservoir or pressure medium chambers (3.i; i=1,...4) of the pressure control system, wherein, for this purpose, - a pre-compressed pressure medium is provided by a first compression stage, which pre-compressed pressure medium is additionally compressed (St1.4, St2.3, St2.4) at least by means of a second compression stage, and an already-compressed charging pressure medium is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor, and the charging pressure medium is compressed again (St1.1) at least by the second compression stage, or - an already-compressed charging pressure medium is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor, and the charging pressure medium is compressed again (St1.1) at least by the second compression stage, characterized in that the charging pressure medium simultaneously passes (St1.2) via a control line (26.2) to a control input (26.1) of a shut-off valve that interacts with the first compression stage, such that a charging pressure (pA) of the charging pressure medium predefines a control pressure (pS) of the shut-off valve, wherein, by means of the shut-off valve, a pressure limitation (pG) and/or volume flow limitation, dependent on the control pressure (pS), of the pre-compressed pressure medium conveyed by the first compression stage into the intermediate volume is set (St1.3) for the purposes of automatically adapting the compression power of the first compression stage by means of the charging pressure medium situated in the control line (26.2). - a pre-compressed pressure medium is provided by a first compression stage, which pre-compressed pressure medium is additionally compressed (St1.4, St2.3, St2.4) at least by means of a second compression stage, and an already-compressed charging pressure medium is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor, and the charging pressure medium is compressed again (St1.1) at least by the second compression stage, or - an already-compressed charging pressure medium is introduced into an intermediate volume between the first compression stage and the second compression stage of the multi-stage compressor, and the charging pressure medium is compressed again (St1.1) at least by the second compression stage,
An information processing apparatus comprising: a physical unclonable function, i.e. PUF, to generate at least one unique key using a process variation in a semiconductor manufacturing process; and an encryption unit to encrypt at least one of a password received from a user and bio-information using the unique key to generate an identification key, characterized in that the PUF generates the unique key using whether an interlayer contact formed between conductive layers of a semiconductor short-circuits the conductive layers, wherein the PUF is configured to set the size of the interlayer contact formed between the conductive layers of the semiconductor such that a difference between a probability of the interlayer contact short-circuiting the conductive layers and a probability of the interlayer contact not short-circuiting the conductive layers is within a preset error range, and wherein the PUF comprises N unit structures to generate a 1-bit digital value using a pair of conductive layers and one interlayer contact connecting the conductive layers and generates N-bit unique keys through the N unit structures, N being a natural number. a physical unclonable function, i.e. PUF, to generate at least one unique key using a process variation in a semiconductor manufacturing process; and an encryption unit to encrypt at least one of a password received from a user and bio-information using the unique key to generate an identification key, characterized in that the PUF generates the unique key using whether an interlayer contact formed between conductive layers of a semiconductor short-circuits the conductive layers, wherein the PUF is configured to set the size of the interlayer contact formed between the conductive layers of the semiconductor such that a difference between a probability of the interlayer contact short-circuiting the conductive layers and a probability of the interlayer contact not short-circuiting the conductive layers is within a preset error range, and wherein the PUF comprises N unit structures to generate a 1-bit digital value using a pair of conductive layers and one interlayer contact connecting the conductive layers and generates N-bit unique keys through the N unit structures, N being a natural number.
Container with a containment portion and a connecting portion the connecting portion comprises a connector for connecting fluid lines with a first connector part providing a first orifice for connecting a first fluid line to a third fluid line, a second connector part providing a second orifice for connecting a second fluid line to a fourth fluid line, a mounting means (2, 4) enabling the connection of the first and second connector parts to mating parts of a mating connector, the mounting means comprises two laterally spaced-apart mounting means (2, 4) enabling connection to two equally laterally spaced-apart mating mounting means of the mating connector, wherein each of the two mounting means (2, 4) incorporates one of the two orifices (3, 5) characterized in that the connector has two wing-like projections (7, 8) on opposite sites of a middle section and wherein each of the two mounting means (2, 4) protrudes from one of the two wing-like projections (7, 8) that the two mounting means (2, 4) protrude in a direction which is perpendicular to the axes of the mounting means (2, 4). the two orifices(3,5) of the mounting means are limited by sealing lips located at the lower circumference of the mounting means (2, 4)
A wellhead system, comprising: a wellhead (50, 64) comprising a landing profile; a tubing or casing hanger to be installed in a wellhead (50, 64), the tubing or casing hanger comprising an outer surface including a landing profile configured to engage the landing profile of the wellhead (50, 64); a landing sensor configured to transmit a signal indicating contact between the landing profile of the tubing or casing hanger and the landing profile of the wellhead (50, 64); and a processor configured to receive the signal transmitted by the landing sensor; characterized in that the landing sensor includes a first cable, a second cable and a flexible switch biased into a position protruding from the landing profile of the tubing or casing hanger, wherein the flexible switch is configured to flex inwardly into contact with an electrical contact coupled to second cable in response to the landing profile of the tubing or casing hanger contacting the landing profile of the wellhead (50, 64). a wellhead (50, 64) comprising a landing profile; a tubing or casing hanger to be installed in a wellhead (50, 64), the tubing or casing hanger comprising an outer surface including a landing profile configured to engage the landing profile of the wellhead (50, 64); a landing sensor configured to transmit a signal indicating contact between the landing profile of the tubing or casing hanger and the landing profile of the wellhead (50, 64); and a processor configured to receive the signal transmitted by the landing sensor; characterized in that the landing sensor includes a first cable, a second cable and a flexible switch biased into a position protruding from the landing profile of the tubing or casing hanger, wherein the flexible switch is configured to flex inwardly into contact with an electrical contact coupled to second cable in response to the landing profile of the tubing or casing hanger contacting the landing profile of the wellhead (50, 64).
An isolated antibody or antigen-binding fragment thereof that specifically binds cell surface-expressed ASIC1 (SEQ ID NO:401), wherein the antibody or antigen-binding fragment comprises a heavy chain complementarity determining region (HCDR) 1 having the amino acid sequence of SEQ ID NO: 36, an HCDR2 having the amino acid sequence of SEQ ID NO: 38, an HCDR3 having the amino acid sequence of SEQ ID NO: 40, a light chain complementarity determining region (LCDR) 1 having the amino acid sequence of SEQ ID NO: 44, a LCDR2 having the amino acid sequence of SEQ ID NO: 46, and a LCDR3 having the amino acid sequence of SEQ ID NO: 48.
A remote control device, comprising: a display having a plurality of individually illuminateable segments, the display overlying a dome switch style key matrix, the display having a first area from which a user may select an intended target device for commands transmitted by the remote control and a second area having a plurality of function keys from which a user may select a command to be transmitted; and a transmission circuit linked to the display for use in transmitting commands to the target appliance; wherein the display is an electroluminescent display; and wherein the illuminateable segments are selectively illuminated so as to display function keys in the second area which correspond to functions applicable to the intended target device. a display having a plurality of individually illuminateable segments, the display overlying a dome switch style key matrix, the display having a first area from which a user may select an intended target device for commands transmitted by the remote control and a second area having a plurality of function keys from which a user may select a command to be transmitted; and a transmission circuit linked to the display for use in transmitting commands to the target appliance; wherein the display is an electroluminescent display; and wherein the illuminateable segments are selectively illuminated so as to display function keys in the second area which correspond to functions applicable to the intended target device.
A method for logging transient events of an optical fiber span, OFS,, within a fiber optic system, the method comprising the steps of: 1.1 sampling measured values of at least one signal parameter of an optical signal transported through said optical fiber span, OFS,; 1.2 processing the sampled measurement values to detect an occurrence of a transient event during transport of the optical signal through said optical fiber span, OFS,; 1.3 providing each detected transient event with a time stamp for correlation with other monitored events within said fiber optic system; 1.4 wherein a signal parameter difference is determined continuously by comparing a previous signal parameter value from a current signal parameter value; 1.5 wherein if a predetermined number of consecutively determined signal parameter differences is lower than a signal parameter difference threshold a steady state signal parameter is computed on the basis of the consecutively determined signal parameters; and 1.6 wherein a leading edge transient event is detected if a determined signal parameter difference exceeds the signal parameter difference threshold. 1.1 sampling measured values of at least one signal parameter of an optical signal transported through said optical fiber span, OFS,; 1.2 processing the sampled measurement values to detect an occurrence of a transient event during transport of the optical signal through said optical fiber span, OFS,; 1.3 providing each detected transient event with a time stamp for correlation with other monitored events within said fiber optic system; 1.4 wherein a signal parameter difference is determined continuously by comparing a previous signal parameter value from a current signal parameter value; 1.5 wherein if a predetermined number of consecutively determined signal parameter differences is lower than a signal parameter difference threshold a steady state signal parameter is computed on the basis of the consecutively determined signal parameters; and 1.6 wherein a leading edge transient event is detected if a determined signal parameter difference exceeds the signal parameter difference threshold.
A polypeptide, for use in suppressing a cancer by inhibiting growth hormone secretion from a normal non-diseased, non-cancerous pituitary cell, said polypeptide comprising: (a) a non-cytotoxic protease, which protease is capable of cleaving a protein of the exocytic fusion apparatus in a normal, non-diseased, non-cancerous pituitary cell, wherein the non-cytotoxic protease comprises a clostridial neurotoxin endopeptidase or an IgA protease; (b) a Targeting Moiety that binds to a Binding Site on a normal, non-diseased, non-cancerous pituitary cell, which Binding Site is capable of undergoing endocytosis to be incorporated into an endosome within the normal, non-diseased, non-cancerous pituitary cell, wherein the TM is a growth hormone-releasing hormone (GHRH) peptide; and (c) a clostridial neurotoxin translocation domain that translocates the protease from within the endosome, across the endosomal membrane and into the cytosol of said normal, non-diseased, non-cancerous pituitary cell; wherein the polypeptide lacks the native H CC binding domain of a clostridial neurotoxin. (a) a non-cytotoxic protease, which protease is capable of cleaving a protein of the exocytic fusion apparatus in a normal, non-diseased, non-cancerous pituitary cell, wherein the non-cytotoxic protease comprises a clostridial neurotoxin endopeptidase or an IgA protease; (b) a Targeting Moiety that binds to a Binding Site on a normal, non-diseased, non-cancerous pituitary cell, which Binding Site is capable of undergoing endocytosis to be incorporated into an endosome within the normal, non-diseased, non-cancerous pituitary cell, wherein the TM is a growth hormone-releasing hormone (GHRH) peptide; and (c) a clostridial neurotoxin translocation domain that translocates the protease from within the endosome, across the endosomal membrane and into the cytosol of said normal, non-diseased, non-cancerous pituitary cell;
A method comprising: based on receiving, by a computing device, an indication to initiate roaming of a session of a mobile workspace of a user that is launched on a first user device, selecting a second user device from among one or more trusted user devices based on a proximity of the second user device to the first user device, wherein the indication to initiate session roaming is determined based on a policy rule that identifies the first user device as a master device and designates the one or more trusted user devices as a slave device of the first user device, and based on a determination that a distance between the first user device and at least one slave device is less than a predetermined threshold; and roaming the session from the first user device to the selected second user device by launching the session as a user authenticated session of the mobile workspace of the user on the second user device. based on receiving, by a computing device, an indication to initiate roaming of a session of a mobile workspace of a user that is launched on a first user device, selecting a second user device from among one or more trusted user devices based on a proximity of the second user device to the first user device, wherein the indication to initiate session roaming is determined based on a policy rule that identifies the first user device as a master device and designates the one or more trusted user devices as a slave device of the first user device, and based on a determination that a distance between the first user device and at least one slave device is less than a predetermined threshold; and roaming the session from the first user device to the selected second user device by launching the session as a user authenticated session of the mobile workspace of the user on the second user device.
A method for receiving broadcast signals, the method comprising; receiving two broadcast signals; demodulating the received two broadcast signals by an Orthogonal Frequency Division Multiplexing OFDM scheme wherein at least one of the received two broadcast signals include a preamble, P1, symbol carrying a basic transmission parameter, a transmission type and a corresponding preamble identifier and an additional preamble, AP1, symbol carrying additional transmission parameters to detect a broadcast signal for a mobile service; frequency deinterleaving (627110, 627210) the demodulated two broadcast signals by using a pair-wise scheme which deinterleaves the demodulated two broadcast signals in pairs of two consecutive cells; parsing (627100, 627200) two signal frames from the frequency deinterleaved two broadcast signals; Multi-Input Single Output, MISO, decoding Layer 1, L1, signaling information in the two signal frames; time deinterleaving the MISO decoded L1 signaling information; cell deinterleaving the time deinterleaved L1 signaling information; Quadrature Amplitude Modulation, QAM, de-mapping the cell deinterleaved Layer 1, L1, signaling information in the two signal frames; Forward Error Correction, FEC, decoding the QAM de-mapped L1 signaling information; Multi-Input Single Output, MISO, decoding first Physical Layer Pipe, PLP, data in the two signal frames; time deinterleaving the MISO decoded first PLP data; cell deinterleaving the time deinterleaved first PLP data; QAM de-mapping the cell deinterleaved first PLP data; FEC decoding the QAM de-mapped first PLP data; time deinterleaving second PLP data in the two signal frames; cell deinterleaving (632210-1, 632210-2) the time deinterleaved second PLP data; Multi-Input Multi-Output, MIMO, decoding the cell deinterleaved second PLP data; QAM de-mapping the MIMO decoded second PLP data; FEC decoding the QAM de-mapped second PLP data.
Securing device for cutting through a seal, in particular a bolt seal, comprising two fastening heads, which are dimensioned such that they can be detachably fastened from one end face in each case to the ends of the bolt seal, the fastening heads, in the fixed state, having a spacing from one another, and a connection being attached between the fastening heads characterised in that the fastening head is formed such that it encompasses the ends of the bolt in the manner of cap.
An air flow regulating device, comprising a housing, an air supply unit and a circuit board which are arranged inside the housing, wherein the air supply unit comprises an impeller and a single-phase permanent magnet brushless motor configured to drive the impeller, the single-phase permanent magnet brushless motor comprises a stator and a rotor (60, 102) which can rotate relative to the stator, the stator comprising a stator core and a single-phase winding wound around the stator core, the rotor (60, 102) comprises a shaft and a permanent magnet fixed to the shaft, numbers of magnetic poles of the stator and the rotor (60, 102) are the same and not greater than six, the stator core comprises a yoke, a number of winding portions (2122, 303, 313, 323) extending from the yoke along a radial direction and two pole shoes (2123, 305) extending toward two sides along a circumferential direction from an end of each winding portion, characterized in that the stator surrounds the rotor (60, 102), an outer diameter of the stator core is less than 35mm and/or an axial thickness of the stator core is between 10mm and 20mm, the winding is wound around the winding portions, a wire slot is formed between two adjacent winding portions, pole shoes (2123, 305) of the two adjacent winding portions are disconnected by a slot opening, the slot opening is arranged away from a symmetric center of the two adjacent winding portions and a chamfering is provided near the slot opening only on the inner circumferential surface of a smaller pole shoe (2123, 305).
An implantable delivery system, comprising: a percutaneous access device through which drug-containing fluid can be delivered; a trunk line having a plurality of independent fluid lumens extending therethrough, the plurality of fluid lumens being in fluid communication with a corresponding plurality of ports formed in the access device; a manifold configured to route the plurality of fluid lumens in the trunk line into a plurality of branch lines, each branch line including a plurality of corresponding fluid lumens disposed therein and being coupled to a plurality of microfluidic catheters, each of the microfluidic catheters having first and second discrete fluid channels and being configured to extend into the brain of a patient in use; and a skull anchor configured to be secured to the skull of the patient, the plurality of branch lines and the plurality of microfluidic catheters extending from the skull anchor. a percutaneous access device through which drug-containing fluid can be delivered; a trunk line having a plurality of independent fluid lumens extending therethrough, the plurality of fluid lumens being in fluid communication with a corresponding plurality of ports formed in the access device; a manifold configured to route the plurality of fluid lumens in the trunk line into a plurality of branch lines, each branch line including a plurality of corresponding fluid lumens disposed therein and being coupled to a plurality of microfluidic catheters, each of the microfluidic catheters having first and second discrete fluid channels and being configured to extend into the brain of a patient in use; and a skull anchor configured to be secured to the skull of the patient, the plurality of branch lines and the plurality of microfluidic catheters extending from the skull anchor.