mhurhangee/ep-ind-claims huggingface dataset:
Cypate-cyclo-(DCys-Gly-Arg-Asp-Ser-Pro-Cys)-Lys-OH (LS-301), Cypate-cyclo-(DCys-Gly-Arg-Asp-Ser-Pro-DCys)-Lys-OH, Cypate-cyclo-(DCys-Arg-Gly-Asp-Ser-Pro-Cys)- Lys-OH, Cypate-cyclo-(DCys-Arg-Gly-Asp-Ser-Pro-DCys)-Lys-OH.
A method of forming a composite image on a microlens sheeting, comprising the steps of: providing a sheeting having an array of microlenses and a material layer adjacent the array of microlenses; providing a donor substrate adjacent the material layer of the sheeting, wherein the donor substrate is radiation sensitive; providing a radiation source; while directing one or more pulses of radiation from the radiation source toward the sheeting as one or more divergent beams of energy, sequentially moving the sheeting or the radiation source relative to the other; and focusing the one or more pulses of radiation from the radiation source through the microlenses to the donor substrate such that the donor substrate absorbs incident radiation near multiple respective focal points of each of the microlenses to transfer at least a portion of the donor substrate to the surface of the material layer at positions corresponding to the multiple respective focal points to form individual, partially complete images on the material layer associated with each of a plurality of the microlenses, whereby the sheeting exhibits a composite image, provided by the individual images, that appears to the unaided eye to float above or below the sheeting, or both, the focal points of each of the microlenses approximately at an interface between the donor substrate and the material layer. providing a sheeting having an array of microlenses and a material layer adjacent the array of microlenses; providing a donor substrate adjacent the material layer of the sheeting, wherein the donor substrate is radiation sensitive; providing a radiation source; while directing one or more pulses of radiation from the radiation source toward the sheeting as one or more divergent beams of energy, sequentially moving the sheeting or the radiation source relative to the other; and focusing the one or more pulses of radiation from the radiation source through the microlenses to the donor substrate such that the donor substrate absorbs incident radiation near multiple respective focal points of each of the microlenses to transfer at least a portion of the donor substrate to the surface of the material layer at positions corresponding to the multiple respective focal points to form individual, partially complete images on the material layer associated with each of a plurality of the microlenses, whereby the sheeting exhibits a composite image, provided by the individual images, that appears to the unaided eye to float above or below the sheeting, or both, the focal points of each of the microlenses approximately at an interface between the donor substrate and the material layer.
A twist-lock type element for locking and weighting containers, comprising: a stem having at a first end with an arrow shaped head of a twist-lock type; a load cell comprising: - a longitudinal body having a first end coaxially fixed to a second end of the stem opposed to the arrow shaped head, configured for withstanding a maximum nominal traction force and for elastically stretching itself in a greater measure than said stem, - at least a strain gauge fixed on a wall of said longitudinal body so as to sense an axial traction force of the element for locking and weighting; a locking tail suitable for a spreader for lifting containers, fixed at a second end of said longitudinal body opposite to said first end. a stem having at a first end with an arrow shaped head of a twist-lock type; a load cell comprising: - a longitudinal body having a first end coaxially fixed to a second end of the stem opposed to the arrow shaped head, configured for withstanding a maximum nominal traction force and for elastically stretching itself in a greater measure than said stem, - at least a strain gauge fixed on a wall of said longitudinal body so as to sense an axial traction force of the element for locking and weighting; - a longitudinal body having a first end coaxially fixed to a second end of the stem opposed to the arrow shaped head, configured for withstanding a maximum nominal traction force and for elastically stretching itself in a greater measure than said stem, - at least a strain gauge fixed on a wall of said longitudinal body so as to sense an axial traction force of the element for locking and weighting; a locking tail suitable for a spreader for lifting containers, fixed at a second end of said longitudinal body opposite to said first end.
A method for managing wireless resources in a TDM system, characterized in that the method comprises: a RNC obtaining a resource capacity information in a multi-carrier cell covered by a base station through a resource state indicating message, or a resource audit response message or a resource obstruct message that includes unavailable resources, wherein the resource capacity information in said multi-carrier cell includes a resource capacity information of each carrier frequency, and the resource capacity information of each carrier frequency contains resource capacity information of each timeslot, and the resource capacity information of each timeslot can be acquired by timeslot number, code channel number, amount of timeslots, amount of code channels and availability of each code channel; the RNC allocating resources of carrier frequencies to a corresponding service according to the resource capacity information of each carrier frequency. a RNC obtaining a resource capacity information in a multi-carrier cell covered by a base station through a resource state indicating message, or a resource audit response message or a resource obstruct message that includes unavailable resources, wherein the resource capacity information in said multi-carrier cell includes a resource capacity information of each carrier frequency, and the resource capacity information of each carrier frequency contains resource capacity information of each timeslot, and the resource capacity information of each timeslot can be acquired by timeslot number, code channel number, amount of timeslots, amount of code channels and availability of each code channel; the RNC allocating resources of carrier frequencies to a corresponding service according to the resource capacity information of each carrier frequency.
A method for forming a body, comprising: forming a three-dimensional body by electromagnetic radiation curing a mixture comprising solid particles, wherein forming includes growth of the three-dimensional body from an interface of the mixture, said interface being between an inhibition zone of the mixture and the remaining part of the mixture, the inhibition zone defined as a zone of the mixture which is distinguished from the remaining part of the mixture by the presence of an inhibitor in a concentration that avoids curing of the mixture when exposed to radiation, and forming at least one first region and at least one second region within the three-dimensional body by varying the thickness of the inhibition zone and/or translating portion, such that solid particles of the mixture can be excluded according to their size from entering the translation portion; and wherein the at least one first region having a different density than the at least one second region with a difference in density being at least 0.05 g/cm 3; and the at least one first region having a first content of the solid particles, and the at least one second region comprising a second content of the solid particles, the first content of the solid particles being different than the second content of the solid particles, wherein the solid particles involved for forming the at least one first region have an average particle size, and the solid particles involved for forming the at least one second region have an average particle size, wherein P1>P2. forming a three-dimensional body by electromagnetic radiation curing a mixture comprising solid particles, wherein forming includes growth of the three-dimensional body from an interface of the mixture, said interface being between an inhibition zone of the mixture and the remaining part of the mixture, the inhibition zone defined as a zone of the mixture which is distinguished from the remaining part of the mixture by the presence of an inhibitor in a concentration that avoids curing of the mixture when exposed to radiation, and forming at least one first region and at least one second region within the three-dimensional body by varying the thickness of the inhibition zone and/or translating portion, such that solid particles of the mixture can be excluded according to their size from entering the translation portion; and wherein the at least one first region having a different density than the at least one second region with a difference in density being at least 0.05 g/cm 3; and the at least one first region having a first content of the solid particles, and the at least one second region comprising a second content of the solid particles, the first content of the solid particles being different than the second content of the solid particles, wherein the solid particles involved for forming the at least one first region have an average particle size, and the solid particles involved for forming the at least one second region have an average particle size, wherein P1>P2.
A method for separating a volume of composite liquid into at least a first component and a second component, comprising: centrifuging a separation bag enclosed in a separation compartment having a fixed volume, said separation bag containing a content comprising a volume of composite liquid and a residual volume of gas, said centrifuging being so as to cause the sedimentation of at least a first component and a second component in the separation bag; displacing a volume of hydraulic fluid against the separation bag, said displacing comprising: applying pressure onto the separation bag; causing a transfer of the residual volume of gas contained in the separation bag into at least one component bag (2, 3, 4, 5) connected to the separation bag; and causing a transfer of a first fraction of the first component into a first component bag connected to the separation bag; characterised by determining a volume of hydraulic fluid being displaced so as to cause the transfer of the residual volume of gas until the first component starts pouring into the first component bag; determining, from the determined volume of displaced hydraulic fluid, an actual volume of the composite liquid in the separation bag from at least the fixed volume of the separation compartment, and the determined volume of displaced hydraulic fluid until the first component starts pouring into the first component bag. centrifuging a separation bag enclosed in a separation compartment having a fixed volume, said separation bag containing a content comprising a volume of composite liquid and a residual volume of gas, said centrifuging being so as to cause the sedimentation of at least a first component and a second component in the separation bag; displacing a volume of hydraulic fluid against the separation bag, said displacing comprising: applying pressure onto the separation bag; causing a transfer of the residual volume of gas contained in the separation bag into at least one component bag (2, 3, 4, 5) connected to the separation bag; and causing a transfer of a first fraction of the first component into a first component bag connected to the separation bag; applying pressure onto the separation bag; causing a transfer of the residual volume of gas contained in the separation bag into at least one component bag (2, 3, 4, 5) connected to the separation bag; and causing a transfer of a first fraction of the first component into a first component bag connected to the separation bag; characterised by determining a volume of hydraulic fluid being displaced so as to cause the transfer of the residual volume of gas until the first component starts pouring into the first component bag; determining, from the determined volume of displaced hydraulic fluid, an actual volume of the composite liquid in the separation bag from at least the fixed volume of the separation compartment, and the determined volume of displaced hydraulic fluid until the first component starts pouring into the first component bag.
A protection device for filtering fluid flowing through a lumen of a vessel in a patient's vascular system, the protection device comprising: a discontinuous elongate support member comprising a proximal elongate support segment and a distal elongate support segment separated from the proximal elongate support segment, the proximal and distal elongate support segments (22, 23) each having proximal and distal ends; and a filter element carried by the elongate support member, the filter element being expandable from a delivery configuration to an expanded deployed configuration when the filter element is deployed in the body lumen, the filter element having a proximal end and a distal end and a filter mesh extending from the proximal end to the distal end, the proximal end of the filter element being connected at the distal end of the proximal elongate support segment and the distal end of the filter element being connected at the proximal end of the distal elongate support segment, the filter element comprising a body defining an interior cavity, no substantial portion of the elongate support member lying within the interior cavity so that when the filter element is expanded to the expanded deployed configuration, the distal end of the proximal elongate support segment and the proximal end of the distal elongate support segment are separated by a distance, the body having a plurality of openings configured such that when the filter element is in its deployed configuration within the vessel lumen particles within the fluid having a dimension above a predetermined dimension will be captured inside the cavity of the filter element. a discontinuous elongate support member comprising a proximal elongate support segment and a distal elongate support segment separated from the proximal elongate support segment, the proximal and distal elongate support segments (22, 23) each having proximal and distal ends; and a filter element carried by the elongate support member, the filter element being expandable from a delivery configuration to an expanded deployed configuration when the filter element is deployed in the body lumen, the filter element having a proximal end and a distal end and a filter mesh extending from the proximal end to the distal end, the proximal end of the filter element being connected at the distal end of the proximal elongate support segment and the distal end of the filter element being connected at the proximal end of the distal elongate support segment, the filter element comprising a body defining an interior cavity, no substantial portion of the elongate support member lying within the interior cavity so that when the filter element is expanded to the expanded deployed configuration, the distal end of the proximal elongate support segment and the proximal end of the distal elongate support segment are separated by a distance, the body having a plurality of openings configured such that when the filter element is in its deployed configuration within the vessel lumen particles within the fluid having a dimension above a predetermined dimension will be captured inside the cavity of the filter element.
Assembly of a mudguard for a bicycle, comprising - a mudguard that is a single-part mudguard, comprising an inner wall surface which is configured to face a bicycle tyre after installation on a bicycle; - a bar which is configured to connect the mudguard to a fixed part (5a, 5b) of the bicycle, and - a fastening member which is fastenable to the mudguard and by means of which the bar is fastenable to the mudguard at the height of the inner wall surface, wherein the fastening member comprises a base part with a gutter-shaped recess, and wherein the recess is covered and forms a passage, wherein the bar is configured to extend through this passage and can assume at least two positions in this passage which are rotated with respect to each other and in that the fastening member and/or the mudguard comprises one or several detaining means (9a, 9b, 9c, 9d) which limit the possible positions of the bar in the passage, so that the bar is able to assume two rotated end positions in the passage which extend with respect to each other according to a rotation angle characterized in that the base part is configured to extend with one side essentially against the inner wall surface, wherein this side comprises the gutter-shaped recess, so that this gutter-shaped recess is covered by the inner wall surface and the recess forms the said passage, and in that the inner wall surface, at least at the location of the recess, forms an uninterrupted continuous unit, so that the recess is completely covered by the inner wall surface. - a mudguard that is a single-part mudguard, comprising an inner wall surface which is configured to face a bicycle tyre after installation on a bicycle; - a bar which is configured to connect the mudguard to a fixed part (5a, 5b) of the bicycle, and - a fastening member which is fastenable to the mudguard and by means of which the bar is fastenable to the mudguard at the height of the inner wall surface,
Arrangement for manufacturing of portion packets of a product for oral use, said arrangement comprising a forming arrangement configured to form portion packets of a bulk material, characterized in that the arrangement comprises a device for placing the portion packets into a container, wherein the device comprises a portion packet transporting unit and a portion packet positioning unit (20, 200), wherein the transporting unit is configured to transport individual portion packets to the positioning unit (20, 200) and wherein the positioning unit (20, 200) is configured to position the portion packets in a certain pattern during operation of the device, wherein the transporting unit comprises a product channel intended for transportation of the portion packets, said product channel having an inlet and an outlet, wherein the transporting unit further comprises a gas channel intended to be connected to a source of pressurized gas, wherein the gas channel is arranged to, when connected to said source, guide pressurized gas into the product channel in a direction towards the product channel outlet, wherein the gas channel has an outlet opening positioned in the product channel at a distance from the product channel inlet such that an under-pressure is created at the product channel inlet when pressurized gas is fed through said gas channel, and wherein the ratio between the area of the gas channel outlet opening and the cross-sectional area of the product channel is in the interval of 0.02-0.2, preferably in the interval of 0.05-0.15.
Injection moulding nozzle for an injection moulding apparatus for processing a free-flowing material, a) with a nozzle body having a rear end and a front end, wherein the rear end can be disposed on a material feed and the front end opposite a moulding sprue plate, b) with at least two closure needles (21, 22, 23, 24) penetrating the nozzle body from the rear end to the front end, c) with a melt guide for the free-flowing material, which leads from the rear end to the front end of the nozzle body, wherein the melt guide respectively leads in to the through openings (51, 52, 53, 54) of the closure needles (21, 22, 23, 24), and d) having a heating apparatus that is disposed on the nozzle body, characterised in that e) for each closure needle (21, 22, 23, 24) a separate guide bushing (41, 42, 43, 44) is disposed at the front end of the nozzle body, wherein each guide bushing (41, 42, 43, 44) has a through opening (51, 52, 53, 54) for receiving the respective closure needle (21, 22, 23, 24) axially aligned to each associated closure needle (21, 22, 23, 24), f) that the guide bushes (41, 42, 43, 44) are disposed adjacently and in contact, and g) that each guide bushing (41, 42, 43, 44) has a sealing surface (61, 62, 63, 64) that radially surrounds the through opening (51, 52, 53, 54) and that can be disposed in a sealing manner against a sprue opening (121, 122, 123, 124) in a moulding sprue plate. a) with a nozzle body having a rear end and a front end, wherein the rear end can be disposed on a material feed and the front end opposite a moulding sprue plate, b) with at least two closure needles (21, 22, 23, 24) penetrating the nozzle body from the rear end to the front end, c) with a melt guide for the free-flowing material, which leads from the rear end to the front end of the nozzle body, wherein the melt guide respectively leads in to the through openings (51, 52, 53, 54) of the closure needles (21, 22, 23, 24), and d) having a heating apparatus that is disposed on the nozzle body, characterised in that e) for each closure needle (21, 22, 23, 24) a separate guide bushing (41, 42, 43, 44) is disposed at the front end of the nozzle body, wherein each guide bushing (41, 42, 43, 44) has a through opening (51, 52, 53, 54) for receiving the respective closure needle (21, 22, 23, 24) axially aligned to each associated closure needle (21, 22, 23, 24), f) that the guide bushes (41, 42, 43, 44) are disposed adjacently and in contact, and g) that each guide bushing (41, 42, 43, 44) has a sealing surface (61, 62, 63, 64) that radially surrounds the through opening (51, 52, 53, 54) and that can be disposed in a sealing manner against a sprue opening (121, 122, 123, 124) in a moulding sprue plate.
A connection structure of a wiring conductor that electrically interconnects bonding surfaces (3a, 4a) of wiring terminals of two wiring conductors (3, 4) using a fastening member that includes a bolt and a nut, characterized in that: at least one wiring terminal is provided with a hook-like protrusion in an edge of the bonding surface (3a, 4a); and the nut is pressed and locked by the hook-like protrusion, wherein the bonding surfaces of the wiring terminals of the two wiring conductors comprise a bonding hole for inserting the bolt. at least one wiring terminal is provided with a hook-like protrusion in an edge of the bonding surface (3a, 4a); and the nut is pressed and locked by the hook-like protrusion,
A closed disposable equipment comprising at least two separate disposable isolators (10, 20, 30, 40, 50) including a first disposable isolator and a last disposable isolator, wherein said separate disposable isolator is connected to at least one other separate disposable isolator by at least one connecting means (15, 25, 35, 45), wherein each separate disposable isolator comprises a working place, said working place being located inside said separate disposable isolator, said working place being under inert atmosphere, and/or disinfected, and/or sterile and/or pyrogen free conditions, said working place enabling the manipulation of containers, products or devices, wherein said closed disposable equipment comprises at least one inlet for introducing containers, products or devices into said closed disposable equipment and at least one outlet for discharging said containers, products or devices from said closed disposable equipment, characterized in that said disposable isolators (10, 20, 30, 40, 50) are inflatable bags comprising a membrane or film wall wherein one or more containers, products, or devices may be placed inside said bags, and wherein at least one of said inflatable bags comprises inlet and outlet means in the form of sleeves for introducing or discharging said one or more containers, products, or devices, and for connecting with a next-adjacent isolator.