mhurhangee/patent-ind-claim-en huggingface dataset:
Sealing device for a longitudinal sealing apparatus of a packaging machine, with at least one sealing jaw and at least one further sealing jaw for a sealing of a packaging material , with at least one sealing holder for fixing the sealing jaw and a further sealing holder for fixing the further sealing jaw , wherein the sealing holder and the further sealing holder are supported movably relative to one another, and with at least one packaging transport unit for conveying a packaging material along a transport direction in-between and through the sealing jaws , wherein the packaging transport unit comprises at least one contact conveying element for a friction fit and/or force fit with the packaging material , wherein the contact conveying element is arranged at least partially between the sealing holders , with a mounting rod on which the sealing holder and/or the further sealing holder are arranged, wherein the packaging transport unit comprises a guide element and a further guide element for guiding the contact conveying element along the transport direction , characterized in that a longitudinal axis of the mounting rod and an axis of rotation of the guide element or of the further guide element are arranged at least substantially coaxially. with at least one sealing holder for fixing the sealing jaw and a further sealing holder for fixing the further sealing jaw , wherein the sealing holder and the further sealing holder are supported movably relative to one another, and with at least one packaging transport unit for conveying a packaging material along a transport direction in-between and through the sealing jaws , wherein the packaging transport unit comprises at least one contact conveying element for a friction fit and/or force fit with the packaging material , wherein the contact conveying element is arranged at least partially between the sealing holders , with a mounting rod on which the sealing holder and/or the further sealing holder are arranged, wherein the packaging transport unit comprises a guide element and a further guide element for guiding the contact conveying element along the transport direction , characterized in that a longitudinal axis of the mounting rod and an axis of rotation of the guide element or of the further guide element are arranged at least substantially coaxially.
A polyester film, which comprises a copolymerized polyester resin in which a diol and a dicarboxylic acid are copolymerized and a homopolyethylene terephthalate (HOMO-PET) resin, wherein the diol comprises ethylene glycol, neopentyl glycol and 1% by mole to 8% by mole of diethylene glycol, wherein the dicarboxylic acid comprises terephthalic acid, wherein the polyester film comprises the homopolyethylene terephthalate (HOMO-PET) resin in an amount of 0.5% by weight to 25% by weight based on the total weight of the copolymerized polyester resin and the homopolyethylene terephthalate (HOMO-PET) resin, wherein the melting point (Tm) of the polyester film is 190°C to 230 °C as measured by scanning at a temperature elevation rate of 10°C/min using a differential scanning calorimeter, the melting enthalpy (ΔHm) of the polyester film is 9 J/g or more as measured by scanning at a temperature elevation rate of 10°C/min using a differential scanning calorimeter, the clumping ratio as measured according to APR PET-S-08 of the polyester film is 10% or less, and the 180° peel strength of the polyester film is 150 gf/3 cm or more, as measured according to the description . wherein the diol comprises ethylene glycol, neopentyl glycol and 1% by mole to 8% by mole of diethylene glycol, wherein the dicarboxylic acid comprises terephthalic acid, wherein the polyester film comprises the homopolyethylene terephthalate (HOMO-PET) resin in an amount of 0.5% by weight to 25% by weight based on the total weight of the copolymerized polyester resin and the homopolyethylene terephthalate (HOMO-PET) resin, wherein the melting point (Tm) of the polyester film is 190°C to 230 °C as measured by scanning at a temperature elevation rate of 10°C/min using a differential scanning calorimeter, the melting enthalpy (ΔHm) of the polyester film is 9 J/g or more as measured by scanning at a temperature elevation rate of 10°C/min using a differential scanning calorimeter, the clumping ratio as measured according to APR PET-S-08 of the polyester film is 10% or less, and the 180° peel strength of the polyester film is 150 gf/3 cm or more, as measured according to the description .
Pump for a solids-loaded fluid, comprising an impeller and a cutting ring , wherein the cutting ring comprises a cutting ring base body forming an opening for cooperation with a cutting head and is stationarily connected to the pump in axial extension of the impeller , wherein a plurality of cutting teeth with respective at least outer cutting edges oriented away from the impeller in the direction of a suction side of the pump are provided at the cutting ring base body around the opening , the cutting teeth extend axially outwardly from the cutting ring base body at least in the direction of the suction side , in a valley between two at least outwardly extending cutting teeth , a radially outwardly extending axial depression is provided in the cutting ring base body , characeterized in that at least in each of the outwardly extending cutting teeth a radially outwardly extending material recess is formed. a plurality of cutting teeth with respective at least outer cutting edges oriented away from the impeller in the direction of a suction side of the pump are provided at the cutting ring base body around the opening , the cutting teeth extend axially outwardly from the cutting ring base body at least in the direction of the suction side , in a valley between two at least outwardly extending cutting teeth , a radially outwardly extending axial depression is provided in the cutting ring base body , characeterized in that at least in each of the outwardly extending cutting teeth a radially outwardly extending material recess is formed.
A leg-holding device for hip or knee surgery comprising: a support fixture adapted to fasten the device on an edge of a surface, a main frame arranged on the support fixture in a detachable manner, adapted to move along a first lateral axis and a first rotational axis with respect to the support fixture , a rotating frame arranged on the main frame in a detachable manner, adapted to move along a second lateral axis and a second rotational axis with respect to the main frame , and a foot plate arranged on the rotating frame in a detachable manner, adapted to move along a third lateral axis and a third rotational axis with respect to the rotating frame . a support fixture adapted to fasten the device on an edge of a surface, a main frame arranged on the support fixture in a detachable manner, adapted to move along a first lateral axis and a first rotational axis with respect to the support fixture , a rotating frame arranged on the main frame in a detachable manner, adapted to move along a second lateral axis and a second rotational axis with respect to the main frame , and a foot plate arranged on the rotating frame in a detachable manner, adapted to move along a third lateral axis and a third rotational axis with respect to the rotating frame .
A method for data version comparison between trans-time zone sites, the method comprising: when trans-time zone sites modify target data, receiving , for each respective trans-time zone site of the trans-time zone sites, a time stamp and modified target data, the time stamp being generated by the respective trans-time zone site; when the time stamps are generated by the trans-time zone sites based on respective time zones of the trans-time zone sites, separately performing , for each respective trans-time zone site of the trans-time zone sites and based on a time zone of a central site, time zone conversion on the time stamp submitted by the respective trans-time zone site; and performing , based on the time stamps obtained after the time zone conversion and submitted by the trans-time zone sites, data version comparison on the modified target data submitted by the trans-time zone sites, to determine a latest version of the target data in the modified target data submitted by the trans-time zone sites; wherein performing the data version comparison comprises: comparing values of the time stamps submitted by the trans-time zone sites; and determining that modified target data submitted by a trans-time zone site with the largest time stamp value is the latest version of the target data. when trans-time zone sites modify target data, receiving , for each respective trans-time zone site of the trans-time zone sites, a time stamp and modified target data, the time stamp being generated by the respective trans-time zone site; when the time stamps are generated by the trans-time zone sites based on respective time zones of the trans-time zone sites, separately performing , for each respective trans-time zone site of the trans-time zone sites and based on a time zone of a central site, time zone conversion on the time stamp submitted by the respective trans-time zone site; and performing , based on the time stamps obtained after the time zone conversion and submitted by the trans-time zone sites, data version comparison on the modified target data submitted by the trans-time zone sites, to determine a latest version of the target data in the modified target data submitted by the trans-time zone sites; wherein performing the data version comparison comprises: comparing values of the time stamps submitted by the trans-time zone sites; and determining that modified target data submitted by a trans-time zone site with the largest time stamp value is the latest version of the target data. comparing values of the time stamps submitted by the trans-time zone sites; and determining that modified target data submitted by a trans-time zone site with the largest time stamp value is the latest version of the target data.
Method for operating a communication system, consisting of two endpoints and a data connection between these endpoints , in which payload data interchanged between the first endpoint and the second endpoint of the communication system are symmetrically encrypted by means of a key that is present in both endpoints and that is based on a random number generated in the first endpoint and transmitted to the second endpoint as a shared secret using the public key principle, characterized in that in a basic mode of the communication system the random number interchanged between the endpoints using the public key method, which random number represents a basic key, is used directly to symmetrically encrypt the payload data, whereas in a comfort mode, specifically in a mode with increased security for the encryption of the payload data, the symmetrical encryption of the payload data is carried out by means of a key that is formed by way of a bit-by-bit XORing of the basic key with an additional key, which is present in both endpoints and is a quantum key, that is to say a key generated using a quantum-safe method, wherein the communication system, in the event of its being used in the comfort mode and a fault occurring, reverts to the basic mode in automated fashion.
A fan including: - an external ferrule , the internal surface of which delimits a vein of air , - a wheel provided with blades rotatably mounted in the ferrule for setting into motion the vein of air, - a motor for driving the wheel , - an electric circuit including components for controlling and powering the motor , said circuit includes means for cooling the components by circulating air taken from the vein of air , wherein: said cooling means include a downstream air intake tapping aperture and an upstream tapping aperture for reintroducing air formed through the internal surface of the ferrule , characterized in that at least one continuous cooling conduit connecting the upstream and downstream tapping apertures isolating the components of the electric circuit from the air circulating in the cooling conduit . - an external ferrule , the internal surface of which delimits a vein of air , - a wheel provided with blades rotatably mounted in the ferrule for setting into motion the vein of air, - a motor for driving the wheel , - an electric circuit including components for controlling and powering the motor , said circuit includes means for cooling the components by circulating air taken from the vein of air , wherein: said cooling means include a downstream air intake tapping aperture and an upstream tapping aperture for reintroducing air formed through the internal surface of the ferrule , characterized in that at least one continuous cooling conduit connecting the upstream and downstream tapping apertures isolating the components of the electric circuit from the air circulating in the cooling conduit . said cooling means include a downstream air intake tapping aperture and an upstream tapping aperture for reintroducing air formed through the internal surface of the ferrule , characterized in that at least one continuous cooling conduit connecting the upstream and downstream tapping apertures isolating the components of the electric circuit from the air circulating in the cooling conduit .
A method of wireless communication performed by a wireless node, comprising: identifying a first set of synchronization signal blocks, SSBs, within a received synchronization signal, SS, burst set, wherein the first set of SSBs are used to indicate random access channel, RACH, occasions for a first wireless link type, the SS burst set including a second set of SSBs used to indicate RACH occasions for a second wireless link type, wherein the first wireless link type is one of a wireless access link or a wireless backhaul link, and wherein the second wireless link type is the other one of the wireless access link or the wireless backhaul link; and transmitting a RACH message in a RACH occasion corresponding to an SSB index of an SSB included in the first set of SSBs. identifying a first set of synchronization signal blocks, SSBs, within a received synchronization signal, SS, burst set, wherein the first set of SSBs are used to indicate random access channel, RACH, occasions for a first wireless link type, the SS burst set including a second set of SSBs used to indicate RACH occasions for a second wireless link type, wherein the first wireless link type is one of a wireless access link or a wireless backhaul link, and wherein the second wireless link type is the other one of the wireless access link or the wireless backhaul link; and transmitting a RACH message in a RACH occasion corresponding to an SSB index of an SSB included in the first set of SSBs.
A controller for a multi-roll printer configured to print on at least a first roll (R1) of a medium and a second roll (R2) of a medium at the same time, the controller comprising: a data interface configured to receive print jobs to be executed by the multi-roll printer , each print job comprising at least one image to be printed; a display configured to display a graphical user interface, GUI , with graphical representations (51-54) of the print jobs received by the data interface , wherein a first region (A1), a second region (A2) and a third region (A3) are defined within the GUI ; a user interface which allows a user to assign the graphical representation (51-54) of any print job of the received print jobs to any one of the first, second and third region (A1, A2, A3) of the GUI ; an assignment logic configured to assign all images of a print job to the first roll (R1) when the respective graphical representation (51-54) of that print job has been assigned by the user to the first region (A1); wherein the assignment logic is further configured to assign all images of a print job to the second roll (R2) when the respective graphical representation (51-54) of that print job has been assigned by the user to the second region (A2); and wherein the assignment logic is further configured to determine, for each image of a print job whose graphical representation (51-54) has been assigned to the third region (A3) by the user, one of the rolls (R1, R2) of the multi-roll printer and to assign each image to the respective roll (R1, R2) chosen for that image. a data interface configured to receive print jobs to be executed by the multi-roll printer , each print job comprising at least one image to be printed; a display configured to display a graphical user interface, GUI , with graphical representations (51-54) of the print jobs received by the data interface , wherein a first region (A1), a second region (A2) and a third region (A3) are defined within the GUI ; a user interface which allows a user to assign the graphical representation (51-54) of any print job of the received print jobs to any one of the first, second and third region (A1, A2, A3) of the GUI ; an assignment logic configured to assign all images of a print job to the first roll (R1) when the respective graphical representation (51-54) of that print job has been assigned by the user to the first region (A1); wherein the assignment logic is further configured to assign all images of a print job to the second roll (R2) when the respective graphical representation (51-54) of that print job has been assigned by the user to the second region (A2); and wherein the assignment logic is further configured to determine, for each image of a print job whose graphical representation (51-54) has been assigned to the third region (A3) by the user, one of the rolls (R1, R2) of the multi-roll printer and to assign each image to the respective roll (R1, R2) chosen for that image.
A connector (10; 20) for a weight lifting apparatus, adapted to be slidably attached to a sliding rail of the weight lifting apparatus and comprising means for releasably securing a barbell , wherein the connector further comprises a rotational latching device adapted to engage lateral protrusions of the weight lifting apparatus, and wherein the connector comprises a support arm (11; 21) extending outwardly to provide a support surface for supporting the barbell during free weight exercise when the barbell is not locked in the securing means, and when the rotational latching device is engaged with the lateral protrusions of the weight lifting apparatus.
A flow cytometer , comprising: a flow cell (FC) defining a flow channel (CH) for flowing a liquid (SF) containing a particle (P) through the flow cell; a light source (LS) arranged to emit light (L) to the particle flowing through the channel, the light being incident to the particle at an incidence angle inclined to a normal direction with respect to a flow direction (FD) of the particle through the channel; and a plurality of light detectors (D1, D2), each having a light-receiving surface at which light may be received and a corresponding measurement signal generated, arranged around the flow cell, characterised in that the plurality of light detectors are arranged for receiving at each light receiving surface light diverging from the particle in a lens less detection arrangement. a flow cell (FC) defining a flow channel (CH) for flowing a liquid (SF) containing a particle (P) through the flow cell; a light source (LS) arranged to emit light (L) to the particle flowing through the channel, the light being incident to the particle at an incidence angle inclined to a normal direction with respect to a flow direction (FD) of the particle through the channel; and a plurality of light detectors (D1, D2), each having a light-receiving surface at which light may be received and a corresponding measurement signal generated, arranged around the flow cell, characterised in that the plurality of light detectors are arranged for receiving at each light receiving surface light diverging from the particle in a lens less detection arrangement.
Display system, which has at least one display device and a cover plate , wherein the at least one display device comprises a display field for representing a display content , wherein the display field is surrounded by a visible frame , wherein the visible frame is delimited on the one hand by an inner edge and on the other hand by an outer edge , characterised in that the display system also has at least one light-guide structure module , wherein the at least one light-guide structure module is arranged between the at least one display device and the cover plate , wherein at least one section of the outer edge of the visible frame on the cover plate defines at least one line by parallel projection along an axis oriented perpendicular to the cover plate , wherein the at least one light-guide structure module is designed to enlarge the display content of the at least one display device and to project a section of the inner edge of the visible frame onto the at least one defined line of the cover plate .
A light emitting diode (LED) module having a multi-layer structure, the LED module comprising: a substrate ; an LED on the substrate, the LED configured to emit light toward the substrate ; a plurality of upper electrodes (220S, 250S, 240S, Vss) on the LED and connected to the LED; an upper insulating layer surrounding the plurality of upper electrodes (220S, 250S, 240S, Vss); a film on glass (FOG) electrode (800, 800-1, 800-2) on the upper insulating layer ; and a fan out interconnection structure (220F, 250F, 240F, Vss-F, F) configured to connect the plurality of upper electrodes (220S, 250S, 240S, Vss) to the FOG electrode (800, 800-1, 800-2) through the upper insulating layer . a substrate ; an LED on the substrate, the LED configured to emit light toward the substrate ; a plurality of upper electrodes (220S, 250S, 240S, Vss) on the LED and connected to the LED; an upper insulating layer surrounding the plurality of upper electrodes (220S, 250S, 240S, Vss); a film on glass (FOG) electrode (800, 800-1, 800-2) on the upper insulating layer ; and a fan out interconnection structure (220F, 250F, 240F, Vss-F, F) configured to connect the plurality of upper electrodes (220S, 250S, 240S, Vss) to the FOG electrode (800, 800-1, 800-2) through the upper insulating layer .
A method for the production of isobutene from 3-methylcrotonyl-CoA comprising the steps of: (a) enzymatically converting 3-methylcrotonyl-CoA into 3-methylbutyric acid; and (b) further enzymatically converting the thus produced 3-methylbutyric acid into isobutene, wherein the conversion of 3-methylbutyric acid into isobutene according to step (b) is achieved by a UndB fatty acid desaturase (trans-membrane non-heme iron oxygenase). (a) enzymatically converting 3-methylcrotonyl-CoA into 3-methylbutyric acid; and (b) further enzymatically converting the thus produced 3-methylbutyric acid into isobutene,