mhurhangee/ep-ind-claims huggingface dataset:
A method for reporting a Power Headroom, PH, of a User Equipment, UE, in a wireless communication system having a plurality of aggregated uplink carriers, the method comprising the steps of: receiving a configuration message to activate an uplink carrier; waiting a predetermined time after receiving the configuration message in order to trigger a Power Headroom Report, PHR, (925,930); triggering the PHR, prior to receiving an uplink grant for the uplink carrier, after the predetermined time has elapsed; determining whether the uplink grant is received after the PHR is triggered; obtaining the PH of the PHR in case that the uplink grant is received; generating the PHR based on the obtained PH; and transmitting the generated PHR based on the uplink grant. receiving a configuration message to activate an uplink carrier; waiting a predetermined time after receiving the configuration message in order to trigger a Power Headroom Report, PHR, (925,930); triggering the PHR, prior to receiving an uplink grant for the uplink carrier, after the predetermined time has elapsed; determining whether the uplink grant is received after the PHR is triggered; obtaining the PH of the PHR in case that the uplink grant is received; generating the PHR based on the obtained PH; and transmitting the generated PHR based on the uplink grant.
A tire whose tread comprises, in the unvulcanized state, a heat-expandable rubber composition comprising at least: - 50 to 100 phr of a copolymer based on styrene and butadiene; - optionally, 0 to 50 phr of another diene elastomer; - more than 50 phr of a reinforcing filler; - between 5 and 25 phr of a blowing agent; - between 5 and 25 phr of a heat-fusible compound with a melting point between 70°C and 150°C; - the total content of blowing agent and heat-fusible compound being greater than 15 phr. - 50 to 100 phr of a copolymer based on styrene and butadiene; - optionally, 0 to 50 phr of another diene elastomer; - more than 50 phr of a reinforcing filler; - between 5 and 25 phr of a blowing agent; - between 5 and 25 phr of a heat-fusible compound with a melting point between 70°C and 150°C; - the total content of blowing agent and heat-fusible compound being greater than 15 phr.
A method of producing an absorbent article comprising an absorber, a liquid pervious top sheet comprising non-woven fabric covering the front side of the absorber, and a second sheet bonded to the back face of the top sheet, wherein, a large number of extruded protrusions embossed from the back side to the front side of the top sheet is arrayed at intervals in the width direction and the front-back direction respectively, and a large number of top-second bonded portions arrayed in an intermittent bonding pattern in the width direction and the front-back direction is provided through pressure welding of the top sheet and the second sheet at areas between the extruded protrusions aligned in the width direction and the front-back direction, the method comprising: assembling of the top sheet and the second sheet, the assembling comprising: transferring the non-woven fabric to be the top sheet by being drawn from downstream of a production line while forming the extruded protrusions in the non-woven fabric through embossing; after that, aligning a material of the second sheet with the back face of the non-woven fabric having the extruded protrusions; and bonding the non-woven fabric and the material of the second sheet into a bonding pattern such that in regions between the extruded protrusions adjacent each other in the MD, rows of a plurality of top-second bonded portions disposed at intervals in the CD are provided through the center positions of the regions in the CD, while areas between the top-second bonded portions in the CD comprise compressed portions in each of which the non-woven fabric is more highly compressed than the areas at both sides of the compressed portions in the MD without welding of the non-woven fabric and the material of the second sheet. transferring the non-woven fabric to be the top sheet by being drawn from downstream of a production line while forming the extruded protrusions in the non-woven fabric through embossing; after that, aligning a material of the second sheet with the back face of the non-woven fabric having the extruded protrusions; and bonding the non-woven fabric and the material of the second sheet into a bonding pattern such that in regions between the extruded protrusions adjacent each other in the MD, rows of a plurality of top-second bonded portions disposed at intervals in the CD are provided through the center positions of the regions in the CD, while areas between the top-second bonded portions in the CD comprise compressed portions in each of which the non-woven fabric is more highly compressed than the areas at both sides of the compressed portions in the MD without welding of the non-woven fabric and the material of the second sheet.
A treatment system for providing fluid instillation and reduced-pressure treatment at a tissue site, comprising: a plurality of fluid distribution lumens defined between a first film layer and a second film layer, each of the fluid distribution lumens having a delivery aperture; a fluid hub positioned in fluid communication with the plurality of fluid distribution lumens, the fluid hub and the plurality of fluid distribution lumens defining a fluid instillation pathway; a plurality of leg members; a reduced-pressure hub in fluid communication with the plurality of leg members, the reduced-pressure hub and the plurality of leg members defining a reduced-pressure pathway separate from the fluid instillation pathway; a fluid supply lumen adapted to be coupled in fluid communication with the fluid hub; and a reduced-pressure lumen adapted to be coupled in fluid communication with the reduced-pressure hub, each of the leg members comprising a leg manifold and a leg encapsulating material, the leg manifold being encapsulated by the leg encapsulating material, a plurality of leg fenestrations being disposed through the leg encapsulating material in fluid communication with the leg manifold characterized in that each of the leg members comprises an interior and an exterior defined by the leg encapsulating material, the leg manifold being positioned within the interior of the leg member, the plurality of leg fenestrations being disposed through the leg encapsulating material in fluid communication between the leg manifold and the exterior of the leg member. a plurality of fluid distribution lumens defined between a first film layer and a second film layer, each of the fluid distribution lumens having a delivery aperture; a fluid hub positioned in fluid communication with the plurality of fluid distribution lumens, the fluid hub and the plurality of fluid distribution lumens defining a fluid instillation pathway; a plurality of leg members; a reduced-pressure hub in fluid communication with the plurality of leg members, the reduced-pressure hub and the plurality of leg members defining a reduced-pressure pathway separate from the fluid instillation pathway; a fluid supply lumen adapted to be coupled in fluid communication with the fluid hub; and a reduced-pressure lumen adapted to be coupled in fluid communication with the reduced-pressure hub, each of the leg members comprising a leg manifold and a leg encapsulating material, the leg manifold being encapsulated by the leg encapsulating material, a plurality of leg fenestrations being disposed through the leg encapsulating material in fluid communication with the leg manifold characterized in that each of the leg members comprises an interior and an exterior defined by the leg encapsulating material, the leg manifold being positioned within the interior of the leg member, the plurality of leg fenestrations being disposed through the leg encapsulating material in fluid communication between the leg manifold and the exterior of the leg member.
Hob device, in particular induction hob device, comprising at least one plate unit, which plate unit has at least one plate main body, which has an at least substantially smooth surface in at least one surface portion on at least one plate side, and which has at least one first layer unit which is arranged in at least one first sub-region of the surface portion and is at least substantially non-transparent, and with at least one light source which is intended for providing light in an operating mode, wherein the plate unit has at least one second layer unit which is arranged in at least one second sub-region of the surface portion and is provided for scattering light, wherein the second layer unit, when viewed perpendicular to a main extension plane of the plate unit, is arranged completely within a surface extension which a heating region spans and at least participates in at least one identification of at least the heating region, characterised in that the plate unit has at least one third layer unit which is provided to filter at least partially light provided by the light source in the operating mode, in order to permit optimal lighting in particular, and which is arranged in at least one third sub-region of the surface portion, wherein the third layer unit has a filter function, by means of which the third layer unit filters light emitted by the light source by way of scattering and/or absorbing and/or transmitting the light, wherein the third layer unit, when viewed perpendicular to a main extension plane of the plate unit, is arranged completely within a surface extension which an operating region spans and at least participates in at least one identification of at least the operating region, at least together with the light source, wherein the third layer unit is provided, in the operating mode of the light source, to permit at least partially an escape of light from the light source from a hob interior and, in an inactivity mode of the light source, to prevent an escape of light from the hob interior by means of the filter function at least to a large extent.
Tube supply device for a textile machine that produces cross-wound packages, which textile machine has, in the area of its two machine longitudinal sides, a plurality of workstations arranged next to one another and empty-tube conveyor belts and is equipped with a tube storage device, wherein the tube supply device comprises the tube storage device, wherein the tube storage device has at least two tube magazines (3A, 3B), which are connected to the empty-tube conveyor belts by means of a tube distribution device (2A, 2B) of the tube supply device in such a way that the workstations of the textile machine can be properly supplied with empty tubes from each of the two tube magazines (3A, 3B) if required, wherein the tube distribution device (2A, 2B) has at least two tube trolleys, characterised in that the tube trolleys each have a movably mounted tube gripper and can be moved on a rail structure. wherein the tube supply device comprises the tube storage device, wherein the tube storage device has at least two tube magazines (3A, 3B), which are connected to the empty-tube conveyor belts by means of a tube distribution device (2A, 2B) of the tube supply device in such a way that the workstations of the textile machine can be properly supplied with empty tubes from each of the two tube magazines (3A, 3B) if required, wherein the tube distribution device (2A, 2B) has at least two tube trolleys, characterised in that the tube trolleys each have a movably mounted tube gripper and can be moved on a rail structure.
A human monoclonal antibody or antigen-binding portion thereof that specifically binds to insulin-like growth factor I receptor (IGF-IR), wherein said antibody or portion inhibits the binding of IGF-I or IGF-II to IGF-IR and inhibits IGF-I-induced phosphorylation of IGF-IR, and wherein said antibody comprises heavy chain CDR1, CDR2 and CDR3 amino acid sequences and light chain CDR1, CDR2 and CDR3 amino acid sequences from a heavy chain and a light chain selected from the group consisting of: a) the heavy and light chains of antibody 2.12.1 (ATCC Deposit No. PTA-2792); b) a heavy chain comprising the amino acid sequence of SEQ ID NO: 4 and a light chain comprising the amino acid sequence of SEQ ID NO: 2; and c) a heavy chain comprising the amino acid sequence of SEQ ID NO: 49 without the signal sequence, and a light chain comprising the amino acid sequence of SEQ ID NO: 51 without the signal sequence; wherein the antibody or antigen-binding portion binds to cynomologous or rhesus IGF-IR but not to marmoset IGF-IR. a) the heavy and light chains of antibody 2.12.1 (ATCC Deposit No. PTA-2792); b) a heavy chain comprising the amino acid sequence of SEQ ID NO: 4 and a light chain comprising the amino acid sequence of SEQ ID NO: 2; and c) a heavy chain comprising the amino acid sequence of SEQ ID NO: 49 without the signal sequence, and a light chain comprising the amino acid sequence of SEQ ID NO: 51 without the signal sequence;
Method for the printing of chocolate with food grade ink, comprising the steps of a) treating a surface of plastic film with plasma; b) printing the plasma-treated surface of said plastic film with food grade ink; and c) optionally drying the printed plastic film, wherein the food grade ink is suitable for the printing of chocolate, and wherein the printed plastic film is used for the printing of chocolate by transfer printing. a) treating a surface of plastic film with plasma; b) printing the plasma-treated surface of said plastic film with food grade ink; and c) optionally drying the printed plastic film,
A method for diagnosing acne in a subject, comprising determining in a dermal and/or epidermal sample from said subject the expression of the following microRNAs: hsa-miR-223, hsa-miR-21*, hsa-miR-212, hsa-miR-21, hsa-miR-421, hsa-miR-29b-1*, hsa-miR-146b-5p, hsa-miR-146b-3p, hsa-miR-941, hsa-miR-27a*, and hsa-miR-155, and wherein an increase in the expression of said microRNAs in said sample compared to control samples indicates that the subject suffers from acne or is likely to suffer from acne.
Method of fabricating a slot tube, in particular a slot tube screen filter, which effects controlled adjustment of a desired fine filter slot opening, which starts from a conventionally produced slot tube assembly of interconnected basic elements, which consist of axially extending support profiles wrapped around with radially crossing wire windings of profile wire, which are solidly fixed together at each mutual crossing and whereby adjoining profile wire windings delimit and define an interstitial, continuous filter slot opening of given initial width, characterized in that said known slot tube is subjected to torsion deformation by rotary twist, whereby the slot tube mantle is twisted relative to the slot tube axis by an adjustable amount of rotations within the plastic torsion area causing a permanent helical twist of the axial support ribs, and continuing said rotational twisting until a desired final finer slot opening width or a required gradual narrowing of initial filter slot opening is reached, which final slot opening has a width smaller than 0,040 mm.
A compressor housing, having a cylindrical housing main body and having at least one lid, which closes the housing main body at an end of the same, the same, for providing a stop for the respective lid, comprising at least one threaded ring with an external thread, which via its external thread is screwed into the respective end of the housing main body having an internal thread, characterized in that the threaded ring is rotationally locked relative to the housing main body via an anti-rotation lock.
A drivetrain system (400, 500, 600, 700, 800, 900, 1000) comprising: a first drive gear (410, 510, 610, 710, 810, 910, 1010) arranged on an axis (499, 599, 699, 799, 899, 999, 1099), wherein the first drive gear is driven by a first motor, and a second drive gear (420, 520, 620, 720, 820, 920, 1020) arranged on the axis, wherein the second drive gear is driven by a second motor, characterised in that the first drive gear comprises a first extension (411, 511, 611, 711, 811, 911, 1011) along the axis; and the second drive gear comprises a second extension (421, 521, 621, 721, 821, 921, 1021) along the axis, wherein the second extension is arranged radially within and axially overlaps the first extension; a bearing (401, 501, 601, 701, 801, 901, 1011) arranged between the first drive gear and the second drive gear, wherein the bearing interfaces to the first extension and to the second extension. a first drive gear (410, 510, 610, 710, 810, 910, 1010) arranged on an axis (499, 599, 699, 799, 899, 999, 1099), wherein the first drive gear is driven by a first motor, and a second drive gear (420, 520, 620, 720, 820, 920, 1020) arranged on the axis, wherein the second drive gear is driven by a second motor, characterised in that the first drive gear comprises a first extension (411, 511, 611, 711, 811, 911, 1011) along the axis; and the second drive gear comprises a second extension (421, 521, 621, 721, 821, 921, 1021) along the axis, wherein the second extension is arranged radially within and axially overlaps the first extension; a bearing (401, 501, 601, 701, 801, 901, 1011) arranged between the first drive gear and the second drive gear, wherein the bearing interfaces to the first extension and to the second extension.
Device for converting solar radiation comprising: an inorganic luminescent material comprising a doped host material, wherein the doped host material is doped with Mn 5+ ions for converting radiation of the UV, visible and/or part of the near infrared band of the solar spectrum into radiation of a predetermined near-infrared band, preferably the near-infrared band between 1150 nm and 1250 nm, more preferably between 1180 nm and 1200 nm, which is the band around the emission peak of Mn 5+; or, wherein the doped host material includes elements Al, Si, O and N (SiAlON) and wherein the doped host material is doped with Sm 2+ and/or Tm 2+ ions for converting radiation of the UV, visible and/or part of the near infrared band of the solar spectrum into radiation of a predetermined visible red band, preferably the visible red band between 650 nm and 800 nm, which is the band around the emission peak of Mn 2+; and/or into radiation of a predetermined near-infrared band, preferably the near-infrared band between 1100 and 1200 nm, more preferably between 1130 nm and 1150 nm, which is th band around the emission peak of Tm 2+; and, at least one photovoltaic device for converting at least part of the converted radiation into electrical power. an inorganic luminescent material comprising a doped host material, wherein the doped host material is doped with Mn 5+ ions for converting radiation of the UV, visible and/or part of the near infrared band of the solar spectrum into radiation of a predetermined near-infrared band, preferably the near-infrared band between 1150 nm and 1250 nm, more preferably between 1180 nm and 1200 nm, which is the band around the emission peak of Mn 5+; or, wherein the doped host material includes elements Al, Si, O and N (SiAlON) and wherein the doped host material is doped with Sm 2+ and/or Tm 2+ ions for converting radiation of the UV, visible and/or part of the near infrared band of the solar spectrum into radiation of a predetermined visible red band, preferably the visible red band between 650 nm and 800 nm, which is the band around the emission peak of Mn 2+; and/or into radiation of a predetermined near-infrared band, preferably the near-infrared band between 1100 and 1200 nm, more preferably between 1130 nm and 1150 nm, which is th band around the emission peak of Tm 2+; and, at least one photovoltaic device for converting at least part of the converted radiation into electrical power.
A method of making a vacuum insulating glass unit, the method comprising: providing a VIG subassembly to a heater, the VIG subassembly comprising first and second substantially parallel spaced apart glass substrates, a plurality of support pillars between the first and second glass substrates, and a frit material for forming an edge seal therebetween; emitting infrared energy from at least one bulb operating at approximately half power density so as to preheat the VIG subassembly; and emitting IR energy from the at least one bulb operating at approximately half power density and at a pre-selected peak IR wavelength at which the first and second glass substrates have an absorption of less than 30% and at which the frit material has an absorption of 80% in making the VIG unit. providing a VIG subassembly to a heater, the VIG subassembly comprising first and second substantially parallel spaced apart glass substrates, a plurality of support pillars between the first and second glass substrates, and a frit material for forming an edge seal therebetween; emitting infrared energy from at least one bulb operating at approximately half power density so as to preheat the VIG subassembly; and emitting IR energy from the at least one bulb operating at approximately half power density and at a pre-selected peak IR wavelength at which the first and second glass substrates have an absorption of less than 30% and at which the frit material has an absorption of 80% in making the VIG unit.
An electric brake device comprising: an electric motor; a brake rotor; a friction pad configured to come into contact with the brake rotor to generate a braking force; a linear motion mechanism configured to convert a rotary motion of the electric motor into a linear motion of the friction pad; a braking force command section configured to generate a command value of a target braking force by using an operation amount of a brake operation portion; a braking force estimation section configured to obtain an estimated value of a braking force that presses the friction pad against the brake rotor; a motor rotation angle detector configured to detect a rotation angle of the electric motor; and a controller configured to control the electric motor according to the command value and the estimated value of the braking force, characterized in that, said controller is provided with a pad wear amount estimation section configured to estimate a wear amount of the friction pad from the rotation angle of the electric motor, obtained by the motor rotation angle detector, which rotation angle corresponds to a distance between a retraction end at which a linear motion portion of the linear motion mechanism is separated from the brake rotor and an advance end at which the linear motion portion approaching the brake rotor generates the braking force. an electric motor; a brake rotor; a friction pad configured to come into contact with the brake rotor to generate a braking force; a linear motion mechanism configured to convert a rotary motion of the electric motor into a linear motion of the friction pad; a braking force command section configured to generate a command value of a target braking force by using an operation amount of a brake operation portion; a braking force estimation section configured to obtain an estimated value of a braking force that presses the friction pad against the brake rotor; a motor rotation angle detector configured to detect a rotation angle of the electric motor; and a controller configured to control the electric motor according to the command value and the estimated value of the braking force, characterized in that, said controller is provided with a pad wear amount estimation section configured to estimate a wear amount of the friction pad from the rotation angle of the electric motor, obtained by the motor rotation angle detector, which rotation angle corresponds to a distance between a retraction end at which a linear motion portion of the linear motion mechanism is separated from the brake rotor and an advance end at which the linear motion portion approaching the brake rotor generates the braking force.