mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a tubular film, in particular a tubular film cover for a medical device, comprising the method steps: - Providing an unfolded tubular film, - Holding the unfolded tubular film on an application aid in the form of a handling device, comprising a base surface for holding the tubular film and a working head, movable in an X-Y plane above the tubular film, as the handling unit, - Providing at least one item of information for processing the unfolded tubular film by the application aid, wherein the type of processing is indicated by the application aid and the position indicated by the application aid is transferred by an operator to the unfolded tubular film, or the type of processing indicated is performed by the operator at the position indicated, or wherein the at least one item of information for processing the unfolded tubular film is saved in the handling device and processing is performed automatically by the handling device in accordance with the item of information provided, - wherein processing comprises applying applications onto the unfolded tubular film and - wherein the unfolded tubular film is folded for the first time after the processing step of applying applications. - Providing an unfolded tubular film, - Holding the unfolded tubular film on an application aid in the form of a handling device, comprising a base surface for holding the tubular film and a working head, movable in an X-Y plane above the tubular film, as the handling unit, - Providing at least one item of information for processing the unfolded tubular film by the application aid, wherein the type of processing is indicated by the application aid and the position indicated by the application aid is transferred by an operator to the unfolded tubular film, or the type of processing indicated is performed by the operator at the position indicated, or wherein the at least one item of information for processing the unfolded tubular film is saved in the handling device and processing is performed automatically by the handling device in accordance with the item of information provided, - wherein processing comprises applying applications onto the unfolded tubular film and - wherein the unfolded tubular film is folded for the first time after the processing step of applying applications.
Method for making a molded article, the method comprising: flowing a polymer feed to a mold, and recovering the molded article from the mold, wherein an absolute value of ΔRV of the molded article as compared to the polymer feed is from 0 to 5, the RV determined according to ASTM D789; wherein the molded article comprises nylon-6,6, and a section having a thin elongated profile comprising a thickness of up to 1.5 mm, and a flow length of at least 25 cm; characterized in that , the polymer feed comprises a polymer resin comprising, from 90 to 99.9 wt.% polyamide condensation product of diacid and diamine, from 3 to 200 ppmw phosphorus, present as an oxyphosphorus compound, and from 800 to 3000 ppmw acetic acid end groups on the polyamide; wherein the polyamide resin has amine end groups (AEG) ≤ 40 milliequivalents per kg (meq/kg) of the polyamide resin, and wherein the polyamide resin has a RV from 26 to 42, the RV determined according to ASTM D789. flowing a polymer feed to a mold, and recovering the molded article from the mold, wherein an absolute value of ΔRV of the molded article as compared to the polymer feed is from 0 to 5, the RV determined according to ASTM D789; wherein the molded article comprises nylon-6,6, and a section having a thin elongated profile comprising a thickness of up to 1.5 mm, and a flow length of at least 25 cm; nylon-6,6, and a section having a thin elongated profile comprising a thickness of up to 1.5 mm, and a flow length of at least 25 cm; a thickness of up to 1.5 mm, and a flow length of at least 25 cm; characterized in that , the polymer feed comprises a polymer resin comprising, from 90 to 99.9 wt.% polyamide condensation product of diacid and diamine, from 3 to 200 ppmw phosphorus, present as an oxyphosphorus compound, and from 800 to 3000 ppmw acetic acid end groups on the polyamide; from 90 to 99.9 wt.% polyamide condensation product of diacid and diamine, from 3 to 200 ppmw phosphorus, present as an oxyphosphorus compound, and from 800 to 3000 ppmw acetic acid end groups on the polyamide; wherein the polyamide resin has amine end groups (AEG) ≤ 40 milliequivalents per kg (meq/kg) of the polyamide resin, and wherein the polyamide resin has a RV from 26 to 42, the RV determined according to ASTM D789.
A method for managing thermal conditions in a mobile electronic device, comprising: determining , in the mobile electronic device, whether an add-on outer case is attached to the mobile electronic device, wherein the add-on outer case is removably secured to and covers a permanent outer housing of the mobile electronic device, and wherein determining whether the add-on outer case is attached to the mobile electronic device comprises detecting a presence of the add-on outer case by a proximity sensor within the mobile electronic device, wherein determining whether the add-on outer case is attached to the mobile electronic device comprises detecting a pulse from the proximity sensor deflecting off an inner surface of the add-on case; measuring, in the mobile electronic device, a continuous duration that the presence of the add-on outer case is detected, wherein in response to the continuous duration exceeding a time threshold the add-on outer case is determined to be attached; and changing , in the mobile electronic device, a thermal mitigation parameter of a thermal mitigation process implemented on the mobile electronic device in response to determining that the add-on outer case is attached to the mobile electronic device. determining , in the mobile electronic device, whether an add-on outer case is attached to the mobile electronic device, wherein the add-on outer case is removably secured to and covers a permanent outer housing of the mobile electronic device, and wherein determining whether the add-on outer case is attached to the mobile electronic device comprises detecting a presence of the add-on outer case by a proximity sensor within the mobile electronic device, wherein determining whether the add-on outer case is attached to the mobile electronic device comprises detecting a pulse from the proximity sensor deflecting off an inner surface of the add-on case; measuring, in the mobile electronic device, a continuous duration that the presence of the add-on outer case is detected, wherein in response to the continuous duration exceeding a time threshold the add-on outer case is determined to be attached; and changing , in the mobile electronic device, a thermal mitigation parameter of a thermal mitigation process implemented on the mobile electronic device in response to determining that the add-on outer case is attached to the mobile electronic device.
A surgical stapler, comprising: a staple cartridge channel configured to receive a curved staple cartridge , the staple cartridge configured to removably store staples therein; an anvil configured to deform said staples; said staple cartridge ; and a curved piece of buttress material , wherein said staple cartridge comprises: a surface configured to receive said curved piece of buttress material thereon, wherein said surface includes a first end, a second end, and a first edge extending between said first end and said second end, and wherein said first edge is at least partially defined by a first radius of curvature; and characterised in that said staple cartridge comprises: a first lip which at least partially extends along said first edge, wherein said first lip is configured to reduce relative movement between said piece of buttress material and said surface, wherein the first lip is longer than the buttress material and limits relative axial movement between the buttress material and the staple cartridge . a staple cartridge channel configured to receive a curved staple cartridge , the staple cartridge configured to removably store staples therein; an anvil configured to deform said staples; said staple cartridge ; and a curved piece of buttress material , wherein said staple cartridge comprises: a surface configured to receive said curved piece of buttress material thereon, wherein said surface includes a first end, a second end, and a first edge extending between said first end and said second end, and wherein said first edge is at least partially defined by a first radius of curvature; and characterised in that said staple cartridge comprises: a first lip which at least partially extends along said first edge, wherein said first lip is configured to reduce relative movement between said piece of buttress material and said surface, wherein the first lip is longer than the buttress material and limits relative axial movement between the buttress material and the staple cartridge . a first lip which at least partially extends along said first edge, wherein said first lip is configured to reduce relative movement between said piece of buttress material and said surface, wherein the first lip is longer than the buttress material and limits relative axial movement between the buttress material and the staple cartridge .
An attaching member to be attached to a blood purification apparatus (B) including a peristaltic pump (P), the attaching member being configured to hold a pump tube (C) which can be attached to and detached from the peristaltic pump (P) and is to be squeezed in a predetermined direction by the peristaltic pump (P) for liquid delivery, the attaching member comprising: a body attachable to a predetermined position (Ba) of the blood purification apparatus (B); and a holding portion attached to the body and that is configured to hold the pump tube (C), characterized in that the holding portion is continuous with and folded with respect to the body and is displaceable by rocking relative to the body about the folded area (K) so as to release a load which the pump tube (C) is subjected to when being attached to or detached from the peristaltic pump (P). a body attachable to a predetermined position (Ba) of the blood purification apparatus (B); and a holding portion attached to the body and that is configured to hold the pump tube (C), characterized in that the holding portion is continuous with and folded with respect to the body and is displaceable by rocking relative to the body about the folded area (K) so as to release a load which the pump tube (C) is subjected to when being attached to or detached from the peristaltic pump (P).
Parking unit for print heads , wherein the parking unit has a trough which is sealed and can be filled with a liquid , and wherein the parking unit is designed to have a gap seal to the print head , characterised in that the parking unit has springs or coil springs for fastening.
A syringe for injecting an active substance, comprising a cylindrical syringe body having a boundary wall in the distal region, said boundary wall merging into an extension , such as a luer cone, or comprising an opening via which extension or opening the active substance is dispensable, two plungers which are axially movable in the syringe body and mechanically connected via an elastic body , and an actuator for commonly moving the plungers; wherein, prior to the injection of the active substance, the distal plunger and the boundary wall are spaced apart from each other and a first volume formed thereby is filled with the active substance, wherein, when force is applied to the actuator in the direction of the boundary wall, the plungers are displaceable as a mechanically coupled unit until the distal plunger contacts the boundary wall or a stop, wherein, when the plungers are mechanically coupled as a unit, the inner surfaces of the plungers facing each other are spaced apart from each other and a second volume formed thereby is filled with a post-injection medium and, when further axial force is applied to the actuator once the distal plunger contacts the boundary wall , the mechanical connection between the plungers is automatically changeable such that the proximal plunger is displaceable in the direction of the distal plunger, and wherein, when the proximal plunger is displaced in the direction of the distal plunger, the post-injection medium traverses the distal plunger and/or flows past the latter, characterized in that the second volume is filled with a gas as the post-injection medium and in that , once the post-injection medium is injected, the proximal plunger is prevented from sliding back by clamping or frictional locking or by underpressure prevailing in the space surrounded by the plungers and the elastic body connecting the plungers , wherein, when sliding back is prevented by the underpressure, the distal plunger comprises at least one opening in its distally extending boundary, said at least one opening being closed by a check valve.
A method for manufacturing a laminate sheet wherein a fluororesin film with a thickness of from 10 to 1000 μm and a silicone rubber sheet with a thickness of from 0.2 to 5.0 mm are adhered to one another, the laminate sheet has a peel adhesion strength based on JIS K6854-2 (adhesives-method for testing peel adhesion strength - part 2: 180 degree peel) of 3N or more, the four corners of a 120 mm by 120 mm laminate sheet do not curve into one end of a semicircular arc shape or one end of a C shape, and the average warpage value of the four corners is 35 mm or less, said method being characterized in that : the fluororesin film with a thickness of from 10 to 1000 μm which has a reactive functional group as a result of a surface treatment and a millable-type silicone rubber composition sheet with a thickness of from 0.2 to 5.0 mm, which contains an organic peroxide having a one-minute half-life temperature in the range of from 100 to 150°C, are overlapped, so as for the side having a reactive functional group as a result of a surface treatment to contact with the silicone rubber composition; and the silicone rubber composition is cured by being heated under pressure at from 90 to 135°C.
A capsule designed for food or beverage preparation, the capsule comprising a cup-shaped base body , a top wall and a bottom retaining wall for holding food or beverage preparation ingredients, wherein the base body is made of one single injection-molded piece and wherein a side wall of the base body comprises at least one co-injected multilayer section having two outer layers being made from a different polymeric material than a core layer , the base body further comprising a bottom structure which is integrally molded with the side wall and comprising opening means allowing the capsule to be opened at the time of its use, characterized by the opening means of the bottom structure being integrally formed profiled portions directed towards the bottom retaining wall of the capsule, wherein the co-injected multilayer section extends from the side wall into the outer annular portion of the bottom structure such as to overlap with the bottom retaining wall connected to an upper surface of the outer annular portion , and terminates in a region between the bottom retaining wall and the bottom structure or even extends within said bottom structure .
A dynamic random access memory, DRAM, device , comprising: a memory array including multiple memory locations; and input/output, I/O circuitry including an interface to a command bus including a chip select, CS, signal line and excluding a clock enable, CKE, signal line; wherein a logic transition of the CS signal line is to trigger a low power mode, in connection with a command encoding of the command bus. a memory array including multiple memory locations; and input/output, I/O circuitry including an interface to a command bus including a chip select, CS, signal line and excluding a clock enable, CKE, signal line; wherein a logic transition of the CS signal line is to trigger a low power mode, in connection with a command encoding of the command bus.
Phase shifting transformer for poly-phase alternating current (AC) with source side terminals and with load side terminals , the phase shifting transformer comprising: an exciting unit , being a first transformer with primary coils (110.1) connected between pairs of the source side terminals , and with secondary coils (110.2) configured to provide quadrature voltages ({Δ V L}); and a series unit being a second transformer with primary coils (120.1) connected in series between the source side terminals and the load side terminals , and with secondary coils (120.2) configured to receive the quadrature voltages ({Δ V L}), thus providing a voltage phase displacement between the source side terminals and the load side terminals , the phase shifting transformer characterized in that the exciting unit has further coils (110.3) that are magnetically coupled to the primary coils (110.1) and to the secondary coils (110.2) of the exciting unit configured to provide further voltages {Δ V R}, with the further coils (110.3) connected in series between the source side terminals and the series unit , so that the voltages ({V L}) at the load terminals are combinations of the quadrature voltages ({Δ V L}) and the further voltages ({Δ V R}) with the source voltages ({V S}), thus modifying the voltage phase displacement between the source side terminals and the load side terminals . an exciting unit , being a first transformer with primary coils (110.1) connected between pairs of the source side terminals , and with secondary coils (110.2) configured to provide quadrature voltages ({Δ V L}); and a series unit being a second transformer with primary coils (120.1) connected in series between the source side terminals and the load side terminals , and with secondary coils (120.2) configured to receive the quadrature voltages ({Δ V L}), thus providing a voltage phase displacement between the source side terminals and the load side terminals , the phase shifting transformer characterized in that the exciting unit has further coils (110.3) that are magnetically coupled to the primary coils (110.1) and to the secondary coils (110.2) of the exciting unit configured to provide further voltages {Δ V R}, with the further coils (110.3) connected in series between the source side terminals and the series unit , so that the voltages ({V L}) at the load terminals are combinations of the quadrature voltages ({Δ V L}) and the further voltages ({Δ V R}) with the source voltages ({V S}), thus modifying the voltage phase displacement between the source side terminals and the load side terminals .
A computer-implemented method comprising: accessing an internet-of-things, IoT, network topology model that is partitioned into first and second nodes; determining a first execution plan that, when executed, couples the first and second nodes together to execute a first task; determining the first node is within a first logical boundary and the second node is within a second logical boundary ; determining a first boundary crossing exists where the first execution plan, when executed, will cross from the first logical boundary into the second logical boundary ; and in response to determining the first boundary crossing, determining a first credential and a first access control list, ACL, are needed for communications across the first boundary crossing, and provisioning the first credential and the first ACL to the first node ; wherein (a) the first node is an abstraction of at least one of a first physical node included in the IoT network and a first logical node corresponding to the physical node; and (b) the second node is an abstraction of at least one of a second physical node included in the IoT network and a second logical node corresponding to the physical node. accessing an internet-of-things, IoT, network topology model that is partitioned into first and second nodes; determining a first execution plan that, when executed, couples the first and second nodes together to execute a first task; determining the first node is within a first logical boundary and the second node is within a second logical boundary ; determining a first boundary crossing exists where the first execution plan, when executed, will cross from the first logical boundary into the second logical boundary ; and in response to determining the first boundary crossing, determining a first credential and a first access control list, ACL, are needed for communications across the first boundary crossing, and provisioning the first credential and the first ACL to the first node ; wherein (a) the first node is an abstraction of at least one of a first physical node included in the IoT network and a first logical node corresponding to the physical node; and (b) the second node is an abstraction of at least one of a second physical node included in the IoT network and a second logical node corresponding to the physical node.
A throttling component for a conditioning and flow rate measurement device, comprising a central throttling element and a plurality of peripheral throttling elements , the plurality of peripheral throttling elements are sequentially sleeved outside the central throttling element and are coaxial with the central throttling element ; annular fluid channels are respectively formed between the central throttling element and its adjacent peripheral throttling element , and between adjacent peripheral throttling elements, wherein the central throttling element is in a round column shape comprising an annular side wall and two circular end surfaces connected with the annular side wall, and the peripheral throttling element is cylindrical and the cross section of each fluid channel being a circular ring, characterized in that the area of the cross section of each annular fluid channel satisfies the following formula , wherein the cross section is perpendicular to the axial direction of the central throttling element : S 1 l 1 ν 1 r 1 = S 2 l 2 ν 2 r 2 = ⋯ = S i l i ν i r i = ⋯ = S N l N ν N r N wherein, i = 1,...,N, N is the number of annular fluid channels; S i is the area of the cross section of the i-th annular fluid channel; l i is the axial length of the i-th annular fluid channel; v i is the flow velocity in the i-th annular fluid channel; r i is the radius of the central circle of the i -th annular fluid channel. wherein the central throttling element is in a round column shape comprising an annular side wall and two circular end surfaces connected with the annular side wall, and the peripheral throttling element is cylindrical and the cross section of each fluid channel being a circular ring, characterized in that the area of the cross section of each annular fluid channel satisfies the following formula , wherein the cross section is perpendicular to the axial direction of the central throttling element : S 1 l 1 ν 1 r 1 = S 2 l 2 ν 2 r 2 = ⋯ = S i l i ν i r i = ⋯ = S N l N ν N r N wherein, i = 1,...,N, N is the number of annular fluid channels; S i is the area of the cross section of the i-th annular fluid channel; l i is the axial length of the i-th annular fluid channel; v i is the flow velocity in the i-th annular fluid channel; r i is the radius of the central circle of the i -th annular fluid channel.