mhurhangee/ep-ind-claims huggingface dataset:
Glass wall of a building comprising at least two fixed glass panels, the panels being formed of a multiple insulating glazing formed of several glass sheets (4, 5), the said glazing comprising: a. two horizontal spacers between each glass sheet (4, 5); b. at least one transparent vertical spacer on an edge contiguous with another panel; c. a first double horizontal peripheral seal between the horizontal spacers and each glass sheet (4, 5); d. a second horizontal peripheral seal; e. at least one first transparent double vertical peripheral seal between the transparent vertical spacer and each glass sheet (4, 5); f. an internal space between the glass sheets (4, 5) delimited by the horizontal spacers and vertical spacers comprising a covering of insulating gas, wherein a. the horizontal spacers and vertical spacers are connected by at least one tightness element in order to form a spacer frame; b. at least one second vertical peripheral seal contiguous with the first transparent vertical peripheral seal is non-transparent and leaktight to water vapour and to the insulating gas of the internal space; c. two contiguous panels are connected by at least one seal base contiguous with the second vertical peripheral seal of each panel; d. the second vertical peripheral seal contiguous with the first transparent vertical peripheral seal is free from tensile stress and/or from shear with respect to the adjacent panel; e. a tightness lining is located between the glass sheets (4, 5) of two contiguous panels and is in contact with the seal base; f. the glass wall is devoid of vertical rigid frame element in the vicinity of the edge of the panel contiguous with the transparent spacer. a. two horizontal spacers between each glass sheet (4, 5); b. at least one transparent vertical spacer on an edge contiguous with another panel; c. a first double horizontal peripheral seal between the horizontal spacers and each glass sheet (4, 5); d. a second horizontal peripheral seal; e. at least one first transparent double vertical peripheral seal between the transparent vertical spacer and each glass sheet (4, 5); f. an internal space between the glass sheets (4, 5) delimited by the horizontal spacers and vertical spacers comprising a covering of insulating gas, a. the horizontal spacers and vertical spacers are connected by at least one tightness element in order to form a spacer frame; b. at least one second vertical peripheral seal contiguous with the first transparent vertical peripheral seal is non-transparent and leaktight to water vapour and to the insulating gas of the internal space; c. two contiguous panels are connected by at least one seal base contiguous with the second vertical peripheral seal of each panel; d. the second vertical peripheral seal contiguous with the first transparent vertical peripheral seal is free from tensile stress and/or from shear with respect to the adjacent panel; e. a tightness lining is located between the glass sheets (4, 5) of two contiguous panels and is in contact with the seal base; f. the glass wall is devoid of vertical rigid frame element in the vicinity of the edge of the panel contiguous with the transparent spacer.
Biaxially oriented, multilayer, microporous foil with shut-off function, the microporosity of which is created by converting β-crystalline polypropylene when the foil is stretched, and which comprises at least one shut-off layer I and at least one layer II, wherein the shut-off layer contains propylene homopolymer and propylene block copolymer and β-nucleating agent and polyethylene, wherein the foil has a Gurley value from 50 to 5000 s, an e-modulus in the lengthwise direction >300 N/mm 2 and > 500 N/mm 2 in the transverse direction, and after exposure to a temperature of 130°C for 5 minutes the foil exhibits a Gurley value of at least 5000s, wherein the Gurley value after this temperature treatment is at least 1000s higher than before, characterized in that layer II is porous and layer II contains propylene homopolymer and propylene block copolymer and β-nucleating agent.
A safety controller for controlling machines or installations, which present a hazard to humans or material goods during operation, comprising an input/output unit for receiving input signals from external sensors and for producing output signals to external actuators, comprising a holding unit for a data storage medium, comprising a data storage medium (34, 34a, 34b, 34c, 34d, 34e, 34f) having a carrier element (76, 106, 182, 192) which carries a memory element (78, 108, 184, 194), wherein the memory element (78, 108, 184, 194) stores data (36, 38) for the safety controller, wherein the memory element is a transponder (78, 184) for a non-contact data transfer or a memory card (108, 194) having contacts, and comprising a transfer unit for non-contact data exchange with the transponder (78, 184) or a contact-connection unit for contacting the contacts of the memory card (108, 194), characterized in that the data storage medium (34, 34a, 34b, 34c, 34d, 34e, 34f) has at least one mounting element (72a, 72b, 102a, 102b, 186a, 186b, 196a, 196b) which is able to move relative to the carrier element (76, 106, 182, 192) such that it is able to interact with the holding unit (32, 32a, 32b, 32c, 32d, 32e, 32f), as a result of which the data storage medium (34, 34a, 34b, 34c, 34d, 34e, 34f) is mounted on the holding unit (32, 32a, 32b, 32c, 23d, 32e, 32f), wherein the holding unit (32c, 32d) has at least one retaining element (142a, 142b, 162a, 162b), wherein the mounting element (72a, 72b, 102a, 102b) and the retaining element (142a, 142b, 162a, 162b) are in a form such that the data storage medium (34c, 34d) is mounted on the holding unit (32c, 32d) at least by a form-fit connection which is produced between the mounting element (72a, 72b, 102a, 102b) and the retaining element (142a, 142b, 162a, 162b), and wherein the mounting element (72a, 72b, 102a, 102b) has a latching lug (74a, 74b, 104a, 104b) and a securing edge (148a, 148b, 168a, 168b) at a distance therefrom, and the retaining element (142a, 142b, 162a, 162b) has a latching edge (144a, 144b, 164a, 164b) and a retaining edge (146a, 146b, 166a, 166b) at a distance therefrom, wherein the form-fit connection is produced by virtue of the latching lug (74a, 74b, 104a, 104b) engaging behind the latching edge (144a, 144b, 164a, 164b) and the securing edge (148a, 148b, 168a, 168b) being supported on the retaining edge (146a, 146b, 166a, 166b).
Lonafarnib and ritonavir for use in the treatment of hepatitis delta virus infection in a human patient, wherein lonafarnib and ritonavir are administered orally to the patient as a co-therapy.
A resource allocation method, comprising: sending a resource request message, the resource request message being a Device-to-Device, D2D, scheduling request message or a buffer status report, wherein the D2D scheduling request message comprises a D2D semi-persistent scheduling period, and the D2D scheduling request message, respectively the buffer status report, further comprises a D2D communication group identifier or communication destination identifier; receiving D2D resource configuration information and/or D2D resource allocation information; and performing D2D transmission using resources corresponding to the D2D resource configuration information and/or the D2D resource allocation information, the D2D transmission being D2D discovery, or D2D broadcast or groupcast or unicast communication. sending a resource request message, the resource request message being a Device-to-Device, D2D, scheduling request message or a buffer status report, wherein the D2D scheduling request message comprises a D2D semi-persistent scheduling period, and the D2D scheduling request message, respectively the buffer status report, further comprises a D2D communication group identifier or communication destination identifier; receiving D2D resource configuration information and/or D2D resource allocation information; and performing D2D transmission using resources corresponding to the D2D resource configuration information and/or the D2D resource allocation information, the D2D transmission being D2D discovery, or D2D broadcast or groupcast or unicast communication.
Production of blends of wood particles and/or other vegetal particles with plastic in an extrusion line, with a feed section, a planetary roller extruder or planetary roller extruder section (202, 203) and an ancillary extruder or side-arm extruder, b) wherein the wood particles are fed into the feed section that conveys them into the planetary roller extruder or planetary roller extruder section (202, 203), c) wherein the plastic, in granular form, is fed into the ancillary extruder or side-arm extruder, melted therein and the melt is separately conveyed into the planetary roller extruder or planetary roller extruder section (202, 203) d) wherein the wood particles are mixed with the melt and homogenised in the planetary roller extruder or planetary roller extruder section (202, 203), e) wherein the wood particles in the blend make up at least 60 wt %, preferably at least 65 wt %, f) the blend is then discharged from the planetary roller extruder or planetary roller extruder section (202, 203) and g) the blend is compacted, wherein the blend is forced out of the extruder through an extrusion die that is located in the flow direction at the end of the extruder. b) wherein the wood particles are fed into the feed section that conveys them into the planetary roller extruder or planetary roller extruder section (202, 203), c) wherein the plastic, in granular form, is fed into the ancillary extruder or side-arm extruder, melted therein and the melt is separately conveyed into the planetary roller extruder or planetary roller extruder section (202, 203) d) wherein the wood particles are mixed with the melt and homogenised in the planetary roller extruder or planetary roller extruder section (202, 203), e) wherein the wood particles in the blend make up at least 60 wt %, preferably at least 65 wt %, f) the blend is then discharged from the planetary roller extruder or planetary roller extruder section (202, 203) and g) the blend is compacted, wherein the blend is forced out of the extruder through an extrusion die that is located in the flow direction at the end of the extruder.
A medical dressing comprising an adhesive skin contact layer and a backing layer, wherein said backing layer has a first surface facing said skin contact layer and an opposing second surface; said dressing further comprising an absorbent pad arranged between said backing layer and said adhesive skin contact layer, wherein said backing layer and said adhesive skin contact layer extend around the periphery of said absorbent pad characterized in that said backing layer comprises a plurality of three dimensional features forming protrusions on said second surface of said backing layer and depressions on said first surface of said backing layer and wherein said first surface of said backing layer is not adhesively attached to said absorbent pad in the areas forming said depressions.
A composition comprising the Lactobacillus rhamnosus strain CHCC15871 that was deposited with the German Collection of Microorganisms and Cell Cultures (DSMZ) under accession no. DSM 32666 or a mutant strain thereof, wherein the mutant strain is obtained by using the deposited strain as mother strain and wherein the mutant strain has the same or a higher diacetyl production as compared to the mother strain.
A helmet comprising: an outer shell; an impact absorbing liner disposed inside the outer shell and connected in a load transferring manner to the outer shell to receive loads from the outer shell; an inner liner disposed inside the impact absorbing liner, said inner liner being configured to slide relative to the impact absorbing liner; characterised in that said inner liner defines at least one receiving formation; and said helmet includes at least one deflector comprising: a hub that is connectable to the impact absorbing liner; a border along at least part of the deflector's periphery, said border being connectable to one of the receiving formations of the inner liner; and at least one flexible element extending between the hub and the border. an outer shell; an impact absorbing liner disposed inside the outer shell and connected in a load transferring manner to the outer shell to receive loads from the outer shell; an inner liner disposed inside the impact absorbing liner, said inner liner being configured to slide relative to the impact absorbing liner; characterised in that said inner liner defines at least one receiving formation; and said helmet includes at least one deflector comprising: a hub that is connectable to the impact absorbing liner; a border along at least part of the deflector's periphery, said border being connectable to one of the receiving formations of the inner liner; and at least one flexible element extending between the hub and the border.
A harness removably attachable to a body of a user, the harness having a plurality of straps, comprising: a shoulder strap wherein a first end and a second end of the shoulder strap are connected to each other to form a loop with a front portion of the loop connected to a front portion of a belt strap and a rear portion of the loop connected to a rear portion of the belt strap, wherein at least a portion of the shoulder strap comprises an energy absorbing element (146a, 146b, 148) formed integrally therewith on an energy absorbing area at the rear portion of the shoulder strap, the energy absorbing element (146a, 146b, 148) having a tearable webbing material with at least two bound webbing components (146a, 146b) configured to tear from one another along a length of the energy absorbing area when the shoulder strap is subjected to a force that exceeds a predetermined threshold, wherein the shoulder strap: has a starting tear point at the rear portion of the loop where the at least two bound, load-bearing webbing components (146a, 146b) are unbound; has an ending tear point at the rear portion of the loop, the ending tear point having a reinforced area configured to prevent separation of the at least two bound, load-bearing webbing components (146a, 146b); and comprises an anchor element associated with the rear portion of the loop, the anchor element having a frame with a first opening for receiving the shoulder strap and a second opening for connecting to a line connected to an anchor point. a shoulder strap wherein a first end and a second end of the shoulder strap are connected to each other to form a loop with a front portion of the loop connected to a front portion of a belt strap and a rear portion of the loop connected to a rear portion of the belt strap, wherein at least a portion of the shoulder strap comprises an energy absorbing element (146a, 146b, 148) formed integrally therewith on an energy absorbing area at the rear portion of the shoulder strap, the energy absorbing element (146a, 146b, 148) having a tearable webbing material with at least two bound webbing components (146a, 146b) configured to tear from one another along a length of the energy absorbing area when the shoulder strap is subjected to a force that exceeds a predetermined threshold, has a starting tear point at the rear portion of the loop where the at least two bound, load-bearing webbing components (146a, 146b) are unbound; has an ending tear point at the rear portion of the loop, the ending tear point having a reinforced area configured to prevent separation of the at least two bound, load-bearing webbing components (146a, 146b); and comprises an anchor element associated with the rear portion of the loop, the anchor element having a frame with a first opening for receiving the shoulder strap and a second opening for connecting to a line connected to an anchor point.
An aluminum alloy material having an alloy composition containing 0.20 to 1.80mass% of Mg, 0.20 to 2.00mass% of Si, and 0.01 to 1.50mass% of Fe, and optionally further having no more than 2.00mass% in total of at least one element(s) selected from a group consisting of RE, Cu, Ag, Zn, Ni, Co, Au, Mn, Cr, V, Zr, Sn, Ti and B, with a balance being Al and inevitable impurities, wherein the aluminum alloy material has a fibrous metallic microstructure in which a plurality of crystal grains extend so as to be aligned in one direction, and wherein, in a cross section parallel to the one direction, an average value of a maximum dimension of a plurality of the crystal grains in a direction perpendicular to the longitudinal direction is no more than 400 nm, wherein the average value of the maximum dimension of the plurality of the crystal grains is measured by the method described in the description, characterized in that viewing the cross section in a thickness direction, when observing at a central part, specific voids having a maximum dimension in a direction perpendicular to the longitudinal direction of no less than 1.0 pm are not present, or an existence number of the specific voids is no more than 15 per 10000 μm 2. wherein the aluminum alloy material has a fibrous metallic microstructure in which a plurality of crystal grains extend so as to be aligned in one direction, and wherein, in a cross section parallel to the one direction, an average value of a maximum dimension of a plurality of the crystal grains in a direction perpendicular to the longitudinal direction is no more than 400 nm, wherein the average value of the maximum dimension of the plurality of the crystal grains is measured by the method described in the description, characterized in that viewing the cross section in a thickness direction, when observing at a central part, specific voids having a maximum dimension in a direction perpendicular to the longitudinal direction of no less than 1.0 pm are not present, or an existence number of the specific voids is no more than 15 per 10000 μm 2.
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: configuring, by the UE, a radio bearer comprising a packet data convergence protocol, PDCP, entity, first radio link control, RLC, and medium access control, MAC, entities for a Base Station, BS, of a Master Cell Group, MCG, and second RLC and MAC entities for a BS of a Secondary Cell Group, SCG, wherein the PDCP entity is connected with the first RLC entity and the second RLC entity; receiving (S1107, S1111) from a Radio Resource Control, RRC, entity in the BS of the MCG, an indication related to a transmission path; transmitting (S1109, S1113), by the PDCP entity, data of the PDCP entity to the first RLC entity when the indication informs a first transmission path including the first RLC entity and the data of the PDCP entity is not duplicated; and transmitting, by the PDCP entity, the data of the PDCP entity to the second RLC entity when the indication informs a second transmission path including the second RLC entity and the data of the PDCP entity is not duplicated. configuring, by the UE, a radio bearer comprising a packet data convergence protocol, PDCP, entity, first radio link control, RLC, and medium access control, MAC, entities for a Base Station, BS, of a Master Cell Group, MCG, and second RLC and MAC entities for a BS of a Secondary Cell Group, SCG, wherein the PDCP entity is connected with the first RLC entity and the second RLC entity; receiving (S1107, S1111) from a Radio Resource Control, RRC, entity in the BS of the MCG, an indication related to a transmission path; transmitting (S1109, S1113), by the PDCP entity, data of the PDCP entity to the first RLC entity when the indication informs a first transmission path including the first RLC entity and the data of the PDCP entity is not duplicated; and transmitting, by the PDCP entity, the data of the PDCP entity to the second RLC entity when the indication informs a second transmission path including the second RLC entity and the data of the PDCP entity is not duplicated.
A method of operating network entities (421, 422, 423, 424; 521, 522, 523, 524) in a communications system, said communications system comprising a management network comprising agent and management levels (451, 452; 551, 552), wherein fault and/or performance management related data provided in an agent level is correlated in said agent level with further fault and/or performance management related data provided in said agent level, and wherein an information derived from the correlation (442; 543) is transmitted to a management level of said management network of said communications network characterised in that said fault and/or performance management related data is correlated in said agent level by use of configuration management relationships in said agent level.
A method of preparing a biodegradable resin, comprising: preparing a polyester polymer by polycondensation of bivalent alcohol monomers with bivalent carboxylic acid monomers; controlling a moisture content of the polyester polymer to 200 ppm or less; and connecting polymers by a reaction of the polyester polymer having a moisture content of 200 ppm or less with a polyvalent isocyanate, and wherein, in connecting the polymers, less than 0.1 wt% of a polyvalent isocyanate, based on the polyester polymer, is reacted with the polyester polymer. preparing a polyester polymer by polycondensation of bivalent alcohol monomers with bivalent carboxylic acid monomers; controlling a moisture content of the polyester polymer to 200 ppm or less; and connecting polymers by a reaction of the polyester polymer having a moisture content of 200 ppm or less with a polyvalent isocyanate, and wherein, in connecting the polymers, less than 0.1 wt% of a polyvalent isocyanate, based on the polyester polymer, is reacted with the polyester polymer.
A device for welding a rail joint of a track, comprising two rail clamping devices spaced from one another in a rail longitudinal direction which are connected to one another via push rods to press rail ends apart prior to welding, wherein at least one rail clamping device is coupled to a transverse displacement device for flush-aligning the rail ends after being pressed apart characterized in that the transverse displacement device comprises transverse guides by means of which the push rods are guided for a transverse adjustment, that the device is designed as an integrated welding machine with the push rods as integrated push rods and the transverse displacement device as integrated transverse displacement device and that the one rail clamping device is arranged in a first welding head half, and that the other rail clamping device is arranged in a second welding head half.
A microelectromechanical device that comprises a wafer plate, one or more wafer connector elements, and an electrical distribution layer between the wafer plate and the one or more wafer connector elements, wherein the wafer plate comprises at least two dies (104, 106) and bonding material that bonds circumferentially the at least two dies (104, 106) alongside each other to the longitudinal extent of the wafer plate, wherein at least one of the dies is a microelectromechanical die; the electrical distribution layer covers the wafer plate and includes at least one layer of dielectric material and at least one layer of conductive material, wherein the layer of conductive material is patterned within the layer of dielectric material for electrical interconnection of the at least two dies (104, 106) and the wafer connector elements; the electrical distribution layer has a first part that covers the at least one microelectromechanical die and regions of bonding material between the microelectromechanical die and edges of the wafer plate adjacent to the microelectromechanical die; all of the one or more wafer connector elements are positioned on the electrical distribution layer outside the first part.