mhurhangee/ep-ind-claims huggingface dataset:
An implantable device configured for implantation underneath a recipient's skin, the implantable device comprising: a top shell having an impact surface for positioning towards said recipient's skin and side walls extending generally orthogonally from the periphery of the impact surface, at least a portion of the top shell being exposed to an external environment of the implantable device; a bottom shell having a second surface portion for positioning away from said recipient's skin, wherein said second surface portion is generally parallel with portions of said impact surface of said top shell, and having side walls extending generally orthogonally from the periphery thereof towards said top shell to form a non-hermitic enclosure between said top and bottom shells; a chassis secured to said bottom shell; and at least one functional component characterized in that said chassis is disposed within said non-hermetic enclosure to form a hermetic enclosure with said bottom shell, wherein said functional component is disposed in said hermetic enclosure. a top shell having an impact surface for positioning towards said recipient's skin and side walls extending generally orthogonally from the periphery of the impact surface, at least a portion of the top shell being exposed to an external environment of the implantable device; a bottom shell having a second surface portion for positioning away from said recipient's skin, wherein said second surface portion is generally parallel with portions of said impact surface of said top shell, and having side walls extending generally orthogonally from the periphery thereof towards said top shell to form a non-hermitic enclosure between said top and bottom shells; a chassis secured to said bottom shell; and at least one functional component said chassis is disposed within said non-hermetic enclosure to form a hermetic enclosure with said bottom shell, wherein said functional component is disposed in said hermetic enclosure.
A package comprising: a first filter comprising a first polymer frame; a substrate cap coupled to the first polymer frame such that a first void is formed between the substrate cap and the first filter; a second filter comprising a second polymer frame, wherein the second polymer frame is coupled to the substrate cap such that a second void is formed between the substrate cap and the second filter; at least one interconnect coupled to the first filter and the second filter; an encapsulation layer encapsulating the first filter, the substrate cap, the second filter, and the at least one interconnect; and a plurality of through encapsulation vias coupled to the first filter. a first filter comprising a first polymer frame; a substrate cap coupled to the first polymer frame such that a first void is formed between the substrate cap and the first filter; a second filter comprising a second polymer frame, wherein the second polymer frame is coupled to the substrate cap such that a second void is formed between the substrate cap and the second filter; at least one interconnect coupled to the first filter and the second filter; an encapsulation layer encapsulating the first filter, the substrate cap, the second filter, and the at least one interconnect; and a plurality of through encapsulation vias coupled to the first filter.
Air intake housing, notably for a heating, ventilation and/or air conditioning device, comprising: - at least two distinct air inlets (24, 26), and - air guiding members (27, 28, 30) configured to direct at least one airflow intended to be admitted into the air intake housing, characterized in that the air guiding members comprise at least three coaxial flaps (27, 28, 30), these being a central flap and two lateral flaps (28, 30) arranged on either side of the central flap, said coaxial flaps (27, 28, 30) being arranged between said two distinct air inlets (24, 26) of the air intake housing, such as to be able to move about a single pivot axle, and in that the air intake housing comprises an actuation mechanism making it possible to move the two lateral flaps (28, 30) independently of one another. - at least two distinct air inlets (24, 26), and - air guiding members (27, 28, 30) configured to direct at least one airflow intended to be admitted into the air intake housing, characterized in that the air guiding members comprise at least three coaxial flaps (27, 28, 30), these being a central flap and two lateral flaps (28, 30) arranged on either side of the central flap, said coaxial flaps (27, 28, 30) being arranged between said two distinct air inlets (24, 26) of the air intake housing, such as to be able to move about a single pivot axle, and in that the air intake housing comprises an actuation mechanism making it possible to move the two lateral flaps (28, 30) independently of one another.
A method of predicting the ability of a salmon to utilise dietary pigment, the method comprising determining the alleles present at one or more DNA polymorphism in the salmon and predicting the ability of the salmon to utilise dietary pigment based on the determination of the alleles, wherein the DNA polymorphism may be any one or any combination of:- AGKD01307174.1_2657-AC (SNP No.1) (SEQ ID Nos. 1 and 14), AGKD01018473.1_11330-CT (SNP No.2) (SEQ ID Nos. 2 and 15), AGKD01018473.1_9476-AG (SNP No.3) (SEQ ID Nos. 3 and 16), AGKD01114288.1_6700-CT (SNP No.4) (SEQ ID Nos. 4 and 17), AGKD01407103.1_1854-AG (SNP No.5) (SEQ ID Nos. 5 and 18), rs159406379 (SNP No.6) (SEQ ID Nos. 6 and 19), rs159403576 (SNP No.7) (SEQ ID Nos. 7 and 20), rs159407967 (SNP No.8) (SEQ ID Nos. 8 and 21), rs159403150 (SNP No.9) (SEQ ID Nos. 9 and 22), AGKD01407103.1_3519-GT (SNP No.10) (SEQ ID Nos. 10 and 23), AGKD01087062.1_2136-CT (SNP No.11) (SEQ ID Nos. 11 and 24), AGKD01459927.1_723-AG (SNP No.12) (SEQ ID Nos. 12 and 25), and AGKD01004710.1_3497-AG (SNP No.13) (SEQ ID Nos.13 and 26). AGKD01307174.1_2657-AC (SNP No.1) (SEQ ID Nos. 1 and 14), AGKD01018473.1_11330-CT (SNP No.2) (SEQ ID Nos. 2 and 15), AGKD01018473.1_9476-AG (SNP No.3) (SEQ ID Nos. 3 and 16), AGKD01114288.1_6700-CT (SNP No.4) (SEQ ID Nos. 4 and 17), AGKD01407103.1_1854-AG (SNP No.5) (SEQ ID Nos. 5 and 18), rs159406379 (SNP No.6) (SEQ ID Nos. 6 and 19), rs159403576 (SNP No.7) (SEQ ID Nos. 7 and 20), rs159407967 (SNP No.8) (SEQ ID Nos. 8 and 21), rs159403150 (SNP No.9) (SEQ ID Nos. 9 and 22), AGKD01407103.1_3519-GT (SNP No.10) (SEQ ID Nos. 10 and 23), AGKD01087062.1_2136-CT (SNP No.11) (SEQ ID Nos. 11 and 24), AGKD01459927.1_723-AG (SNP No.12) (SEQ ID Nos. 12 and 25), and AGKD01004710.1_3497-AG (SNP No.13) (SEQ ID Nos.13 and 26).
A set of floor panels provided with a locking system comprising a displaceable tongue in a displacement groove in a first edge of a first floor panel, cooperating with a tongue groove in adjacent second edge of a second floor panel for a vertical locking of the first edge and the second edge, the locking system further comprises a locking strip with a locking element in an edge which cooperates with a locking groove in an adjacent edge for a horizontal locking of the edge and the adjacent edge, the displaceable tongue comprises a protrusion and the displacement groove a cavity, the protrusion is slideable against a wall of the cavity to obtain a displacement of the displaceable tongue in a first direction perpendicular to the first edge and the second edge and thereby the vertical locking of the edges, characterised in that the protrusion is flexible and configured to exert a horizontal pre tension against the tongue groove such that a vertical pressure force is created between an upper part of the locking strip and the adjacent panel.
Boat comprising a hull, a deck and a living area, the latter being delimited at the front by a windscreen and having a fixed structure, extending from that area, supporting functional members of the boat such as antennas and the like, there being provided a one-piece mobile rigid canopy, moved by moving members integral to the deck, said canopy being adapted to take at least a first working position in which it is arranged above the living area and at least a second working position in which it is separated from the latter and is associated to and in contact with the deck, at the front of the windscreen, said rigid canopy resting on and being constrained to said windscreen and to a fixed structure when it is in its first working position, characterised in that said moving members are articulated structures which laterally support said canopy, said articulated structures being arranged at side edges of the deck so as to free an upper part or deckhouse of the latter also when the canopy is in its first working position, allowing the free use of such a deckhouse by the people on board the boat and in that along its lateral edges the deck comprises seats, protected by its mobile cover elements (51; 51A, 51B) and adapted to contain the respective articulated structures, said seats containing retractable-wise the latter at least when the canopy is in its second working position.
A locking device guard (400; 702) comprising: a guard head (408; 708) comprising: a fastening mechanism; a guard body (404; 707) coupled with a lock, the guard body comprising: an aperture (416; 740) configured to expose a face of the lock; and a fastening receiver configured to mate with the fastening mechanism of the guard head (408; 708); a hinge (412; 713) connecting the guard head (408; 708) and the guard body (404; 707) and configured to define an open position and a closed position of the locking device guard; characterized in that the guard head (408; 708) further comprises: a fluid absorber; and a frame (432; 718) shaped to receive the fluid absorber; and wherein the aperture (416; 740) of the guard body (404; 707) is further configured to receive the fluid absorber together with the frame of the guard head (408; 708). a guard head (408; 708) comprising: a fastening mechanism; a guard body (404; 707) coupled with a lock, the guard body comprising: an aperture (416; 740) configured to expose a face of the lock; and a fastening receiver configured to mate with the fastening mechanism of the guard head (408; 708); an aperture (416; 740) configured to expose a face of the lock; and a fastening receiver configured to mate with the fastening mechanism of the guard head (408; 708); a hinge (412; 713) connecting the guard head (408; 708) and the guard body (404; 707) and configured to define an open position and a closed position of the locking device guard; characterized in that the guard head (408; 708) further comprises: a fluid absorber; and a frame (432; 718) shaped to receive the fluid absorber; and wherein the aperture (416; 740) of the guard body (404; 707) is further configured to receive the fluid absorber together with the frame of the guard head (408; 708). a fluid absorber; and a frame (432; 718) shaped to receive the fluid absorber; and wherein the aperture (416; 740) of the guard body (404; 707) is further configured to receive the fluid absorber together with the frame of the guard head (408; 708).
Adapter designed to connect a wiper blade to a drive arm of a wiping system for a motor vehicle, the adapter extending primarily along a longitudinal axis and comprising at least: - a body having two sides joined together, at least partially, by a bridge of material, - a head forming a first longitudinal end of the adapter, - a rear portion forming a second longitudinal end of the adapter opposite the first longitudinal end with respect to the body, - a flexible tongue emerging from the body of the adapter and a knob emerging from the flexible tongue, this knob being configured to block the adapter in a terminal portion of the drive arm of the wiping system, the knob having at least one retaining member designed to limit a movement of the adapter along a direction perpendicular to a plane in which the bridge of material is inscribed, and the adapter comprising a device for limiting a rotation of the flexible tongue with respect to the rear portion of the adapter, the device for limiting the rotation of the flexible tongue with respect to the rear portion of the adapter comprising at least one foot which bears against the rear portion of the adapter, the foot having an L shape, this foot comprising a small arm and a large arm, characterized in that the rear portion has at least one lateral face emerging from a side of the body of the adapter, the foot emerging from the knob of the adapter by its large arm and wherein the small arm of this foot bears against a lower edge of the lateral face of the rear portion. - a body having two sides joined together, at least partially, by a bridge of material, - a head forming a first longitudinal end of the adapter, - a rear portion forming a second longitudinal end of the adapter opposite the first longitudinal end with respect to the body, - a flexible tongue emerging from the body of the adapter and a knob emerging from the flexible tongue, this knob being configured to block the adapter in a terminal portion of the drive arm of the wiping system,
A method for manufacturing a hoisting rope (R,R',R",R"'), comprising providing a plurality of elongated composite members (1,1',1",1'"), which composite members (1,1',1",1'") are made of composite material comprising reinforcing fibers (f) embedded in polymer matrix (m); and arranging the composite members (1,1',1",1'") to form an elongated row (r,r',r",r"') of parallel composite members (1,1',1",1'"), which row (r,r',r",r"') has a longitudingal direction, a thickness direction and a width direction, and in which row (r,r',r",r"') the composite members (1,1',1",1'") are positioned side by side such that they are parallel to each other and spaced apart from each other in width direction of the row (r,r',r",r"'), and each of the composite members (1,1',1",1"') is substantially larger in width direction of the row (r,r',r",r"') than in thickness direction of the row (r,r',r",r"'), each composite member (1,1',1",1"') having two opposing sides facing in thickness direction of the row (r,r',r",r"') and two opposing sides forming flanks of the composite member (1,1',1",1"') and facing in width direction of the row (r,r',r",r"'), and at least the flanks of adjacent composite members (1,1',1",1'") facing each other are convex shaped; and thereafter directing plasma treatment on the row (r,r',r",r"'), and thereby on the outer surface of the composite members (1,1',1",1'"); and thereafter embedding the composite members (1,1',1",1"') in fluid polymer material; and thereafter solidifying the polymer material wherein the composite members (1,1',1",1"') are embedded.
A method for use in a first network node for handling a handover preparation failure between a first cell and a second cell in a wireless communication network, the first cell being served by the first network node and the second cell being served by a second network node, wherein said second cell is configured for downlink operation only, the method comprising: transmitting (201a, 301, 401) to the second network node a request for handover of a user equipment from the first cell to the second cell, receiving (203b, 303, 402) from the second network node an indication, which indication indicates the handover preparation failure, characterized in that the received indication further indicates that the handover preparation failure is caused by the second cell being configured for downlink operation only, and the method further comprises selecting (204, 304, 403) another cell for handover based on the received indication until the first network node is provided with another indication that the configuration of the second cell has changed to both downlink and uplink operation. transmitting (201a, 301, 401) to the second network node a request for handover of a user equipment from the first cell to the second cell, receiving (203b, 303, 402) from the second network node an indication, which indication indicates the handover preparation failure, characterized in that the received indication further indicates that the handover preparation failure is caused by the second cell being configured for downlink operation only, and the method further comprises selecting (204, 304, 403) another cell for handover based on the received indication until the first network node is provided with another indication that the configuration of the second cell has changed to both downlink and uplink operation.
An aimer for a phone, the phone having a camera for barcode scanning, the aimer comprising: a light source module for creating a light beam when activated; a projection module for forming the light beam into a pattern; an electronic module electrically connected to the light source module for controlling and powering the light source module; and a housing for supporting the light source module, the projection module, and the electronic module, characterized in that the housing is configured to removably mount to the phone so that: the light source module is positioned between an outer surface of the housing and a body of the phone, the projection module is positioned for steering and projecting the pattern into an area aligned with the camera's field of view and the electronic module is positioned to electrically connect and communicate with the phone. a light source module for creating a light beam when activated; a projection module for forming the light beam into a pattern; an electronic module electrically connected to the light source module for controlling and powering the light source module; and a housing for supporting the light source module, the projection module, and the electronic module, characterized in that the housing is configured to removably mount to the phone so that: the light source module is positioned between an outer surface of the housing and a body of the phone, the projection module is positioned for steering and projecting the pattern into an area aligned with the camera's field of view and the electronic module is positioned to electrically connect and communicate with the phone.
A method for transmitting data from a first node to a second node of a source-selected path routing network, comprising the steps of: a) receiving a first data packet at the first node, wherein said data packet was sent from a source node according to next-hop routing; b) transmitting at least part of the data contained in the data packet from the first node to the second node according to source-selected path routing; c) transmitting the data received at the second node to a destination node according to next-hop routing; further comprising d) determining, by a gateway device comprised in the first node, the second node based on destination information related to the destination node and based on a load and/or a reachability and a geographic location of the second node; e) determining, by the gateway device, for at least a subset of a plurality of available paths between the first node and the second node, a plurality of path parameters; f) determining, by the gateway device, a plurality of attributes related to the first data packet; g) selecting, by the gateway device, a preferred path from the plurality of available paths based on a decision rule, said decision rule specifying, for at least one attribute, a preferred range of path parameters, wherein the first node and the source node belong to a first subnet of a packet switched network or to a first packet switched network and wherein the second node and the destination node belong to a second subnet of the packet switched network or to a second packet switched network and wherein the first subnet is different from the second subnet, and/or the first packet switched network is different from the second packet switched network. a) receiving a first data packet at the first node, wherein said data packet was sent from a source node according to next-hop routing; b) transmitting at least part of the data contained in the data packet from the first node to the second node according to source-selected path routing; c) transmitting the data received at the second node to a destination node according to next-hop routing; further comprising d) determining, by a gateway device comprised in the first node, the second node based on destination information related to the destination node and based on a load and/or a reachability and a geographic location of the second node; e) determining, by the gateway device, for at least a subset of a plurality of available paths between the first node and the second node, a plurality of path parameters; f) determining, by the gateway device, a plurality of attributes related to the first data packet; g) selecting, by the gateway device, a preferred path from the plurality of available paths based on a decision rule, said decision rule specifying, for at least one attribute, a preferred range of path parameters,
An intermediate transfer belt for an image-forming device, comprising at least the three following layers laminated in the described order: (a) a base layer formed from resin, (b) a rubber-elastic layer formed from a rubber or elastomer, having a thickness of 200 to 400 μm, and (c) a surface layer formed from resin, having a thickness of 0.5 to 6 μm, characterized in that the intermediate transfer belt has the following properties: (i) the dynamic ultramicro hardness according to IS014577-1 measured from the surface layer side is 2.5 to 4.5 N/mm 2 at an indentation depth of 2 μm, and 1.0 N/mm 2 or less at an indentation depth of 10 μm, and/or (ii) the rubber-elastic layer contains a filler in a proportion of 0.4 to 4.0 vol.%, and the ratio (M 1 /M 3) of the mass concentration M 1 of the filler in the region from the interface between the surface layer and the rubber-elastic layer toward the base layer to a depth of 20 μm, to the mass concentration M 3 of the filler in the region from 120 μm to 140 μm in depth from the interface between the surface layer and the rubber-elastic layer toward the base layer is 1.3 or higher. (a) a base layer formed from resin, (b) a rubber-elastic layer formed from a rubber or elastomer, having a thickness of 200 to 400 μm, and (c) a surface layer formed from resin, having a thickness of 0.5 to 6 μm, characterized in that the intermediate transfer belt has the following properties: (i) the dynamic ultramicro hardness according to IS014577-1 measured from the surface layer side is 2.5 to 4.5 N/mm 2 at an indentation depth of 2 μm, and 1.0 N/mm 2 or less at an indentation depth of 10 μm, and/or (ii) the rubber-elastic layer contains a filler in a proportion of 0.4 to 4.0 vol.%, and the ratio (M 1 /M 3) of the mass concentration M 1 of the filler in the region from the interface between the surface layer and the rubber-elastic layer toward the base layer to a depth of 20 μm, to the mass concentration M 3 of the filler in the region from 120 μm to 140 μm in depth from the interface between the surface layer and the rubber-elastic layer toward the base layer is 1.3 or higher. (i) the dynamic ultramicro hardness according to IS014577-1 measured from the surface layer side is 2.5 to 4.5 N/mm 2 at an indentation depth of 2 μm, and 1.0 N/mm 2 or less at an indentation depth of 10 μm, and/or (ii) the rubber-elastic layer contains a filler in a proportion of 0.4 to 4.0 vol.%, and the ratio (M 1 /M 3) of the mass concentration M 1 of the filler in the region from the interface between the surface layer and the rubber-elastic layer toward the base layer to a depth of 20 μm, to the mass concentration M 3 of the filler in the region from 120 μm to 140 μm in depth from the interface between the surface layer and the rubber-elastic layer toward the base layer is 1.3 or higher.