mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical device (10; 10a) including a body delimiting a closed internal volume, a first electrode (E1), a second electrode (E2) and a third electrode (E3), a free end of each electrode opening into the internal volume, said free ends of each electrode being arranged, inside the internal volume, at a distance from each other and opposite with respect to the other electrodes, wherein the device includes an electrically conducting element, such as a fuse or a shape memory element, connecting the first electrode to the second electrode, the electrically conducting element being configured for changing when the current flowing therethrough exceeds a predefined threshold value, so as to interrupt the electrical contact between the first electrode and the second electrode, the electrical device being configured for: - prohibiting the flow of current between the first electrode and the third electrode when the electric current or the electric voltage between the first electrode and the second electrode stays below a predefined threshold value; - letting the current flow between the first electrode and the third electrode when said electric current or said electric voltage exceeds said threshold value, characterized in that said current flow is made through an electric arc (A), initially established between the first electrode (E1) and the second electrode (E2), said arc (A) being then diverted to be established between the first electrode (E1) and the third electrode (E3). - prohibiting the flow of current between the first electrode and the third electrode when the electric current or the electric voltage between the first electrode and the second electrode stays below a predefined threshold value; - letting the current flow between the first electrode and the third electrode when said electric current or said electric voltage exceeds said threshold value,
A vehicle lamp fitting, comprising a lens comprising an incident surface and an exit surface (21-25), and a semiconductor light source , wherein: the exit surface (21-25) of the lens is divided into an upper region , a middle region , and a lower region in a vertical direction (Y) when the vehicle lamp fitting is mounted on a vehicle, to have respective focal points, characterized in that the exit surface of the upper region and the exit surface of the lower region are comprised of one surface and respectively have a focal point (F) located at the center or substantially at the center of a light emission surface of the semiconductor light source to emit a diffusion light distribution pattern, and the exit surface in the middle region is, in a front view when the vehicle lamp fitting is mounted on a vehicle, divided by a plurality of, at least two, vertical division lines with substantially equal distance from the center (O) of the semiconductor light source in the horizontal direction (X), in portions, these divided portions of the exit surface of the middle region (22,2 3, 24) respectively have different focal points (F1, F2, F3, F4) as focal line which extends in the horizontal direction (X) between the focal points (F) of the exit surface of the upper region and the exit surface of the lower region and the left end side or its vicinity of the semiconductor light source . the exit surface (21-25) of the lens is divided into an upper region , a middle region , and a lower region in a vertical direction (Y) when the vehicle lamp fitting is mounted on a vehicle, to have respective focal points, characterized in that the exit surface of the upper region and the exit surface of the lower region are comprised of one surface and respectively have a focal point (F) located at the center or substantially at the center of a light emission surface of the semiconductor light source to emit a diffusion light distribution pattern, and the exit surface in the middle region is, in a front view when the vehicle lamp fitting is mounted on a vehicle, divided by a plurality of, at least two, vertical division lines with substantially equal distance from the center (O) of the semiconductor light source in the horizontal direction (X), in portions, these divided portions of the exit surface of the middle region (22,2 3, 24) respectively have different focal points (F1, F2, F3, F4) as focal line which extends in the horizontal direction (X) between the focal points (F) of the exit surface of the upper region and the exit surface of the lower region and the left end side or its vicinity of the semiconductor light source .
A process to continuously treat a hydrogen sulphide comprising gas, said process comprising the following steps: (a) contacting the hydrogen sulphide comprising gas with an aqueous alkaline liquid comprising sulphide-oxidising bacteria and elemental sulphur particles thereby producing a loaded aqueous liquid comprising dissolved sulphide, polysulphide compounds, sulphide-oxidising bacteria and elemental sulphur particles and a gas having a lower content of hydrogen sulphide, and passing the loaded aqueous liquid through a polysulphide reactor zone comprising one or more plug flow reactor zones, (b) contacting the loaded aqueous liquid with an oxidant to enable the sulphide-oxidising bacteria to oxidise sulphide to elemental sulphur, thereby producing an enriched aqueous liquid comprising an increased amount of elemental sulphur particles, and (c) separating elemental sulphur particles from the enriched aqueous liquid, wherein the residence time of the loaded aqueous liquid between its preparation in step (a) and its supply to step (b) is between 3 and 45 minutes, and wherein the content of elemental sulphur as part of the polysulphide compounds in the loaded aqueous liquid [S 0 in S x 2- ] as supplied to step (b) is above 0.7 mM, preferably above 1 mM. (a) contacting the hydrogen sulphide comprising gas with an aqueous alkaline liquid comprising sulphide-oxidising bacteria and elemental sulphur particles thereby producing a loaded aqueous liquid comprising dissolved sulphide, polysulphide compounds, sulphide-oxidising bacteria and elemental sulphur particles and a gas having a lower content of hydrogen sulphide, and passing the loaded aqueous liquid through a polysulphide reactor zone comprising one or more plug flow reactor zones, (b) contacting the loaded aqueous liquid with an oxidant to enable the sulphide-oxidising bacteria to oxidise sulphide to elemental sulphur, thereby producing an enriched aqueous liquid comprising an increased amount of elemental sulphur particles, and (c) separating elemental sulphur particles from the enriched aqueous liquid, wherein the residence time of the loaded aqueous liquid between its preparation in step (a) and its supply to step (b) is between 3 and 45 minutes, and wherein the content of elemental sulphur as part of the polysulphide compounds in the loaded aqueous liquid [S 0 in S x 2- ] as supplied to step (b) is above 0.7 mM, preferably above 1 mM.
A method for determining whether data is punctured by another type of data configured to operate in 3GPP system, comprising: receiving , by a terminal, a downlink control channel transmitted by a base station to schedule retransmission; and receiving, by the terminal, a data packet; determining , by the terminal, whether there is punctured data among earlier N received transmissions of the data packet scheduled by the downlink control channel, according to the downlink control channel, wherein N is an integer more than or equal to 1; wherein the determining , by the terminal, whether there is punctured data among the earlier N received transmissions of the data packet scheduled by the downlink control channel, according to the downlink control channel is as following: the terminal receives a shared channel scheduled by the downlink control channel, characterized in that , the shared channel comprises an indicating field, and the indicating field indicates whether there are punctured data among the earlier N received transmissions of the data packet scheduled by the downlink control channel, and wherein the shared channel carries the scheduled retransmission of the data packet and the indicating field is transmitted over a resource corresponding to fixed Code Block Group, CBG, of CBG's carried in the shared channel, through puncturing or rate matching. receiving , by a terminal, a downlink control channel transmitted by a base station to schedule retransmission; and receiving, by the terminal, a data packet; determining , by the terminal, whether there is punctured data among earlier N received transmissions of the data packet scheduled by the downlink control channel, according to the downlink control channel, wherein N is an integer more than or equal to 1; wherein the determining , by the terminal, whether there is punctured data among the earlier N received transmissions of the data packet scheduled by the downlink control channel, according to the downlink control channel is as following: the terminal receives a shared channel scheduled by the downlink control channel, characterized in that , the shared channel comprises an indicating field, and the indicating field indicates whether there are punctured data among the earlier N received transmissions of the data packet scheduled by the downlink control channel, and wherein the shared channel carries the scheduled retransmission of the data packet and the indicating field is transmitted over a resource corresponding to fixed Code Block Group, CBG, of CBG's carried in the shared channel, through puncturing or rate matching.
A machine for labeling containers having different heights, which comprises a rotating carousel with a lower base which supports a plurality of supporting pans for the containers and an upper supporting structure for a plurality of heads which are intended to engage the top portion of said containers , said supporting pans being substantially at a fixed height independently of the height of said containers to be labeled, said labeling machine further comprising a device for feeding the containers to be labeled to said rotating carousel and a device for unloading the labeled containers , said feeding device comprising at least one first device for conveying said containers to be labeled which is provided with first means for supporting said containers to be labeled at the neck , the machine further comprising first means for varying the height of the bottom of said containers with said different heights to be labeled in order to bring it substantially to the same height as said supporting pans , said first variation means being associated with said first supporting means adapted to vary the height of the bottom of said containers with said different heights to be labeled in order to bring it substantially to the same height as said supporting pans , said unloading device comprising at least one second device for conveying said labeled containers with said different heights, which is provided with second means for supporting said labeled containers at the neck , second means for varying the height of said labeled containers with said different heights supported by said second supporting means being provided wherein said first conveyance device comprises a star-shaped body associated with first supporting means which comprise first clamp elements which are intended to engage at the respective neck of the container , said first clamp elements being movable, during the rotation of the star-shaped body about its own rotation axis , substantially in a vertical direction, said star-shaped body being associated with a profile having a closed shape which can be engaged slideably by said first supporting means , which are provided with first clamp elements which are adapted to receive the containers at a transfer portion characterized in that the plane of arrangement of the closed profile can be moved on command about a tilting axis which is substantially horizontal and is arranged tangentially to the vertical cylindrical surface defined by the rotary motion of the containers about the rotation axis of the star-shaped body.
Support frame having a base frame which can be placed on a substrate and which has at least one elongate support element projecting obliquely upward in a vertical plane, in which support element there is an elongate supporting element at the upper end of which a support is attached, it being possible for the supporting element to be fixed to the support element by means of a form-fitting retaining element engaging in a locking opening at different height positions of the support , characterised in that the form-fitting retaining element can be brought into and out of engagement in a locking opening by a pivoting movement of the supporting element , which is in the support element with lateral play, relative to the support element .
Method for measuring partial discharge pulses of a shielded cable (GK) having a core and a shield, the method comprising: - connecting a coupling capacitor (KK) to a first connection point (AL1) of the core; - providing a first, a second and a third coupling unit (K1, K2, K3), wherein the coupling units (K1, K2, K3) each have an input (E) and a signal output (S) ; - connecting the input (E) of the first coupling unit (K1) to the coupling capacitor (KK), the input (E) of the second coupling unit (K2) to a first connection point (AS1) of the shield and the input (E) of the third coupling unit (K3) to a second connection point (AS2) of the shield in such a way that the shield is earthed via the second and third coupling units (K2, K3) rather than directly; - providing a test voltage at the first connection point (AL1) of the core; - tapping off at least two measurement signals of the coupling units (K1, K2, K3) at the signal outputs (S) of the coupling units (K1, K2, K3); - determining at least one characteristic value for an apparent charge of a partial discharge pulse of the cable (GK) in a manner dependent on the measurement signals; wherein - at least two of the measurement signals are computed with one another. - connecting a coupling capacitor (KK) to a first connection point (AL1) of the core; - providing a first, a second and a third coupling unit (K1, K2, K3), wherein the coupling units (K1, K2, K3) each have an input (E) and a signal output (S) ; - connecting the input (E) of the first coupling unit (K1) to the coupling capacitor (KK), the input (E) of the second coupling unit (K2) to a first connection point (AS1) of the shield and the input (E) of the third coupling unit (K3) to a second connection point (AS2) of the shield in such a way that the shield is earthed via the second and third coupling units (K2, K3) rather than directly; - providing a test voltage at the first connection point (AL1) of the core; - tapping off at least two measurement signals of the coupling units (K1, K2, K3) at the signal outputs (S) of the coupling units (K1, K2, K3); - determining at least one characteristic value for an apparent charge of a partial discharge pulse of the cable (GK) in a manner dependent on the measurement signals; - at least two of the measurement signals are computed with one another.
A device for treating calcified lesions in blood vessels by way of shockwaves, the device comprising: - a balloon , which balloon is fillable with conductive fluid; - an electrode assembly arranged within the balloon , which electrode assembly comprises: - an inner elongate member extending through the balloon; - a first conductive layer disposed over the inner elongate member and extending through the balloon: ; - an insulating layer disposed over the first conductive layer; characterized by that the electrode assembly comprises -a second conductive layer disposed over the insulating layer and extending through the balloon ; wherein the insulating layer is arranged between the first and second conductive layers; - means for propagating shock waves generated by a shockwave generator, in the conductive fluid in the balloon , the means comprising at least one aperture through at least the insulating layer and the second conductive layer . - a balloon , which balloon is fillable with conductive fluid; - an electrode assembly arranged within the balloon , which electrode assembly comprises: - an inner elongate member extending through the balloon; - a first conductive layer disposed over the inner elongate member and extending through the balloon: ; - an insulating layer disposed over the first conductive layer; - means for propagating shock waves generated by a shockwave generator, in the conductive fluid in the balloon , the means comprising at least one aperture through at least the insulating layer and the second conductive layer .
A Method of producing contact zones for a transistor device including the following steps: a) forming a structure with at least one layer made of a compound based on semiconductor and metal on one or more first semiconductor region(s) of a first N-type transistor and on one or more second semiconductor region(s) of a second P-type transistor resting on a same substrate, the first regions being based on a III-V type material whereas the second semiconductor regions are based on another material different from the III-V material, wherein said other material is Si, or Ge, or SiGe, the semiconductor of the compound being chosen from Si, Ge, or SiGe so as to constitute an N-type dopant of the III-V material. b) carrying out at least one thermal annealing of said structure so as to form on the first semiconductor regions first contact zones based on a semiconductor and metal compound and on the second semiconductor regions second contact zones based on a semiconductor and metal compound while carrying out an N-doping of the III-V material or by increasing the N-doping of the III-V material. a) forming a structure with at least one layer made of a compound based on semiconductor and metal on one or more first semiconductor region(s) of a first N-type transistor and on one or more second semiconductor region(s) of a second P-type transistor resting on a same substrate, the first regions being based on a III-V type material whereas the second semiconductor regions are based on another material different from the III-V material, wherein said other material is Si, or Ge, or SiGe, the semiconductor of the compound being chosen from Si, Ge, or SiGe so as to constitute an N-type dopant of the III-V material. b) carrying out at least one thermal annealing of said structure so as to form on the first semiconductor regions first contact zones based on a semiconductor and metal compound and on the second semiconductor regions second contact zones based on a semiconductor and metal compound while carrying out an N-doping of the III-V material or by increasing the N-doping of the III-V material.
Hair removal device, in particular electric shaver , comprising a working head attached to a handle for moving the working head along a skin surface, said working head including at least two short hair cutters and at least one trimmer neighboring at least one of said short hair cutters , wherein said short hair cutters and said at least one trimmer are movable relative to said handle under a skin contact pressure, wherein said at least one trimmer is pivotably supported about a pivot axis to pivot relative to at least one of said short hair cutters under skin contact pressure, said pivot axis extending substantially parallel to a first plane separating the trimmer from one of the short hair cutters and substantially parallel to a second plane perpendicular to a longitudinal handle axis characterized in that the working head includes at least two trimmers .
A method, comprising: receiving a network event having a set of event parameters, determining , whether the network event belongs to a network session associated with one or more previously received network events; categorizing the network event into the same network session as the one or more previously received network events wherein the determining comprises: comparing the set of event parameters to information representing one or more network address translation, NAT, rules associated with one or more NAT devices; associating the network event with a particular NAT rule of one of the one or more NAT devices; estimating one or more other events that are associated with the network event, based on the particular NAT rule; determining whether the one or more other events belong to the same network session; the method further comprising performing, at a predefined time: processing the one or more previously received network events using network session information associated with the one or more previously received network events to result in identifying one or more particular previously received network events belonging to the same network session; grouping the particular previously received network events; sending the grouped events to a network security monitoring device. receiving a network event having a set of event parameters, determining , whether the network event belongs to a network session associated with one or more previously received network events; categorizing the network event into the same network session as the one or more previously received network events wherein the determining comprises: comparing the set of event parameters to information representing one or more network address translation, NAT, rules associated with one or more NAT devices; associating the network event with a particular NAT rule of one of the one or more NAT devices; estimating one or more other events that are associated with the network event, based on the particular NAT rule; determining whether the one or more other events belong to the same network session; comparing the set of event parameters to information representing one or more network address translation, NAT, rules associated with one or more NAT devices; associating the network event with a particular NAT rule of one of the one or more NAT devices; estimating one or more other events that are associated with the network event, based on the particular NAT rule; determining whether the one or more other events belong to the same network session; the method further comprising performing, at a predefined time: processing the one or more previously received network events using network session information associated with the one or more previously received network events to result in identifying one or more particular previously received network events belonging to the same network session; grouping the particular previously received network events; sending the grouped events to a network security monitoring device. grouping the particular previously received network events; sending the grouped events to a network security monitoring device.