mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling appliance comprising a control unit and a compressor wherein the control unit is configured to activate the compressor by initiating an on-cycle wherein the coolant is compressed and during which the control unit measures the current drawn by the compressor , followed by an off-cycle wherein the compressor remains inactive, characterized in that the control unit is configured to divide the on-cycle into predetermined time intervals and calculate the average current value for said time intervals and compare the first time interval's average current value to the overall average current value of the previous on-cycle and - maintain the speed of the compressor if the said first time interval's average current value is smaller than the overall average current value of the previous on-cycle by a predetermined rate, otherwise - increase the speed of the compressor by a predetermined amount if the average current value of a time interval is higher than the average current value of the previous time interval inside the same on-cycle by a predetermined rate and keep increasing the speed of the compressor up to compressor's maximum speed allowed and maintain the speed of the compressor as long as the internal temperature of the cooling appliance reaches a predetermined value. - maintain the speed of the compressor if the said first time interval's average current value is smaller than the overall average current value of the previous on-cycle by a predetermined rate, otherwise - increase the speed of the compressor by a predetermined amount if the average current value of a time interval is higher than the average current value of the previous time interval inside the same on-cycle by a predetermined rate and keep increasing the speed of the compressor up to compressor's maximum speed allowed and maintain the speed of the compressor as long as the internal temperature of the cooling appliance reaches a predetermined value.
Glass roof canopy comprising a fixed frame (Cd) intended to receive an opening frame (Co) bearing at least one glazing or a second fixed frame bearing at least one glazing, the fixed frame (Cd) being designed to be fastened via its bottom part and its top part, which are opposite one another, between two components (Pnb and Pnh) that are disposed substantially parallel to one another and that constitute the framework of a roof, characterized in that the fixed frame (Cd) comprises two pairs of profiles, each pair comprising a first, inner profile (P1) and a second, outer profile (P2), each bottom part or each top part of the fixed frame (Cd) being fastened to the first profile (P1), each second profile (P2) being dimensioned so as to be fastened to a corresponding one of the two components (Pnb and Pnh), and in that the two profiles (P1, P2) comprise means for the relative separation or bringing together of the two profiles (P1 and P2) and/or means allowing the orientation, in a median plane with respect to the second profile (P2), of the first profile (P1) with respect to the second profile (P2), these means comprising adjustment bolts (Blr).
A biocompatible pocket configured for receiving an electrical circuit component, and configured to be sealed and to be implanted within a living organism after accepting said electrical circuit component, comprising; a biocompatible silicon substrate, the biocompatible silicone substrate having a first surface; and a first layer of parylene connected to said first surface of said substrate, said layer defining a pocket structure between said substrate and said layer, a metal layer on said first parylene layer ; a second layer of parylene layer on said metal layer ; a first opening extending through said first layer of parylene and through said second layer of parylene , thereby allowing a conductive epoxy to connect said metal layer to a pad on an electrical circuit component, if said electrical circuit component is inserted in said pocket, with said pocket thereby having an electrical contact configured to be accessible on an internal surface thereof, said biocompatible sealable pocket configured to be sealed with epoxy.
A method comprising: intercepting, at a cloud connector device of a network , a request from a user of the network for content; when the content is not cached in the network : redirecting the request to cloud-based security as a service server outside the network ; receiving the content from the cloud-based security as a service server ; routing the content to a cache server of the network ; and receiving at the cloud connector identity-based security policy from the cloud-based security as a service server for the content; when the content is cached in the network : determining whether the request satisfies an identity-based security policy that is the same as at the security as a service server ; sending the request to the cache server when the request satisfies the identity-based security policy; and rejecting the request when the request fails to satisfy the identity-based security policy. intercepting, at a cloud connector device of a network , a request from a user of the network for content; when the content is not cached in the network : redirecting the request to cloud-based security as a service server outside the network ; receiving the content from the cloud-based security as a service server ; routing the content to a cache server of the network ; and receiving at the cloud connector identity-based security policy from the cloud-based security as a service server for the content; redirecting the request to cloud-based security as a service server outside the network ; receiving the content from the cloud-based security as a service server ; routing the content to a cache server of the network ; and receiving at the cloud connector identity-based security policy from the cloud-based security as a service server for the content; when the content is cached in the network : determining whether the request satisfies an identity-based security policy that is the same as at the security as a service server ; sending the request to the cache server when the request satisfies the identity-based security policy; and rejecting the request when the request fails to satisfy the identity-based security policy. determining whether the request satisfies an identity-based security policy that is the same as at the security as a service server ; sending the request to the cache server when the request satisfies the identity-based security policy; and rejecting the request when the request fails to satisfy the identity-based security policy.
Laminated cellulose-based, liquid- or viscous-food packaging material (10a;10b;10c), for heat sealing into aseptic packaging containers, comprising a bulk material layer (11a; 11b;11c) comprising cellulose-based containerboard material having a Short Compression Test Index value (SCT index), of at least 30 Nm/g in the machine direction (MD), as determined in accordance with ISO 9895 and ISO 536, and a bending stiffness at least 30 % lower than the bending stiffness of a liquid carton paperboard, which has a corresponding grammage, when excluding the printable coating (clay-coat) grammage, the laminated packaging material further comprising a separate print substrate layer (12a;12b;12c) arranged on the outside of the bulk layer, i.e. on the side to be directed outwards from a packaging container made from the laminated material, and an outermost, transparent, protective polymer layer (13a;13b;13c) on the outside of the print substrate layer, wherein the separate print substrate layer is a paper having a paper or metallization print background surface and a grammage from 20 to 100 g/m 2 , the laminated packaging material further comprising an innermost, heat sealable and liquid-tight layer (15a;15b;15c) of a thermoplastic polymer, the innermost polymer layer intended to be in direct contact with the packaged food product, a barrier metal foil or a barrier-coated film (14a;14b;14c) laminated between the bulk layer and the innermost layer and a further barrier layer (18a;18b;18c) comprising at least 50 wt-% of a polyamide, also arranged between the bulk layer and the innermost heat sealable layer.
Method for real-time-capable data communication between subscribers in an automation network , wherein the automation network comprises a master subscriber , multiple slave subscribers and at least one connection unit , these being connected to one another via a network of data cables , wherein the network of data cables is in the form of a field bus system, wherein the master subscriber is designed to transmit data packets to the slave subscribers for the data communication in a cycle in which the data packets are transmitted from the master subscriber to the slave subscribers and data packets are transmitted from the slave subscribers to the master subscriber , and wherein the connection unit is designed to forward data packets addressed to the slave subscribers and to route the data packets back to the master subscriber , wherein the method comprises the following method steps: the master subscriber arranging n data packets to be transmitted in a transmission order with a total occupancy duration of the transmission order in a first arrangement step , wherein the total occupancy duration comprises a period from the master subscriber transmitting a first bit of a data packet that is transmitted first until the master subscriber receiving a last bit of a data packet that is received last, the master subscriber performing an optimization method in order to determine an optimized transmission order with a minimum total occupancy duration in an optimization step , wherein the optimization method comprises a finite number of at most n*(n-1)/2 pairwise swaps of orders of n data packets that follow one another in the transmission order and determinations of the total occupancy durations of the transmission orders generated by the swaps, and the master subscriber transmitting the n data packets in the optimized transmission order to the slave subscribers in a transmission step . the master subscriber arranging n data packets to be transmitted in a transmission order with a total occupancy duration of the transmission order in a first arrangement step , wherein the total occupancy duration comprises a period from the master subscriber transmitting a first bit of a data packet that is transmitted first until the master subscriber receiving a last bit of a data packet that is received last, the master subscriber performing an optimization method in order to determine an optimized transmission order with a minimum total occupancy duration in an optimization step , wherein the optimization method comprises a finite number of at most n*(n-1)/2 pairwise swaps of orders of n data packets that follow one another in the transmission order and determinations of the total occupancy durations of the transmission orders generated by the swaps, and the master subscriber transmitting the n data packets in the optimized transmission order to the slave subscribers in a transmission step .
A method for operating an oxygen concentrator , the method comprising: measuring a product gas within the oxygen concentrator to produce a product gas measurement; determining whether an output of the oxygen concentrator is fluidly connected to a respiratory ventilation device based on the product gas measurement; only in response to determining that the oxygen concentrator is fluidly connected to the respiratory ventilation device, determining whether the output of the oxygen concentrator meets a supply gas requirement of the respiratory ventilation device; and only in response to determining that the output of the oxygen concentrator does not meet the supply gas requirement, adjusting a control output in the oxygen concentrator to modify operation of the oxygen concentrator. measuring a product gas within the oxygen concentrator to produce a product gas measurement; determining whether an output of the oxygen concentrator is fluidly connected to a respiratory ventilation device based on the product gas measurement; only in response to determining that the oxygen concentrator is fluidly connected to the respiratory ventilation device, determining whether the output of the oxygen concentrator meets a supply gas requirement of the respiratory ventilation device; and only in response to determining that the output of the oxygen concentrator does not meet the supply gas requirement, adjusting a control output in the oxygen concentrator to modify operation of the oxygen concentrator.
A main laminate forming a load carrying structure for a wind turbine blade , the main laminate extending in a spanwise direction (L) from a proximal end through a transition region to a distal end , wherein the main laminate comprises: - a top side configured for facing the interior of the wind turbine blade, a bottom side opposite of the top side, and a thickness direction (T) extending between the top side and the bottom side; - a pultrusion portion including a bottom pultrusion element extending in the spanwise direction from the proximal end to a transition end located in the transition region of the main laminate, the pultrusion portion having a transition portion at the transition end, the bottom pultrusion element forming a first part of the bottom side of the main laminate; - a plurality of fibre-reinforced elements including bottom and top fibre-reinforced elements extending in the spanwise direction from the distal end to a transition end located in the transition region of the main laminate, the plurality of fibre-reinforced elements having a transition portion at the transition end, the bottom fibre-reinforced element forming a second part of the bottom side of the main laminate, the plurality of fibre-reinforced elements being stacked in the thickness direction from the bottom fibre-reinforced element to the top fibre-reinforced element; wherein the transition portion of the pultrusion portion and the transition portion of the plurality of fibre-reinforced elements are connected by a joint in the transition region of the main laminate, characterised by a chordwise side of the transition portion of the pultrusion portion and a chordwise side of the transition portion of the plurality of fibre-reinforced elements connected by a joint . - a top side configured for facing the interior of the wind turbine blade, a bottom side opposite of the top side, and a thickness direction (T) extending between the top side and the bottom side; - a pultrusion portion including a bottom pultrusion element extending in the spanwise direction from the proximal end to a transition end located in the transition region of the main laminate, the pultrusion portion having a transition portion at the transition end, the bottom pultrusion element forming a first part of the bottom side of the main laminate; - a plurality of fibre-reinforced elements including bottom and top fibre-reinforced elements extending in the spanwise direction from the distal end to a transition end located in the transition region of the main laminate, the plurality of fibre-reinforced elements having a transition portion at the transition end, the bottom fibre-reinforced element forming a second part of the bottom side of the main laminate, the plurality of fibre-reinforced elements being stacked in the thickness direction from the bottom fibre-reinforced element to the top fibre-reinforced element;
An end fray resistant textile sleeve (10; 10') for protecting elongate members , comprising: an elongate wall (14; 14') having warp yarns woven with weft yarns , said warp yarns extending lengthwise in generally parallel relation to a longitudinal central axis between opposite ends and said weft yarns extending generally transversely to said warp yarns, said warp yarns including at least two different types of warp yarns, with one type of said warp yarns including a plurality of activateable warp yarns and another type of said warp yarns including a plurality of non-activateable warp yarns , said activateable warp yarns being activateable by at least one of heat, fluid and/or pressure, wherein said activateable warp yarns are activated and bonded with adjacent ones of said non-activateable warp yarns and with said weft yarns, at least some of said activatable warp yarns being spaced circumferentially from one another by at least some of said non-activateable warp yarns, characterised in that said activateable warp yarns are multifilaments of non-activateable material coated with an activateable material. an elongate wall (14; 14') having warp yarns woven with weft yarns , said warp yarns extending lengthwise in generally parallel relation to a longitudinal central axis between opposite ends and said weft yarns extending generally transversely to said warp yarns, said warp yarns including at least two different types of warp yarns, with one type of said warp yarns including a plurality of activateable warp yarns and another type of said warp yarns including a plurality of non-activateable warp yarns , said activateable warp yarns being activateable by at least one of heat, fluid and/or pressure, wherein said activateable warp yarns are activated and bonded with adjacent ones of said non-activateable warp yarns and with said weft yarns, at least some of said activatable warp yarns being spaced circumferentially from one another by at least some of said non-activateable warp yarns, characterised in that said activateable warp yarns are multifilaments of non-activateable material coated with an activateable material.
A peptide consisting of an amino acid sequence represented by SEQ ID NO: 1.
A semiconductor power chip configured to operate at high current densities, comprising: a semiconductor die having a power FET device fabricated on a substrate thereof, wherein the power FET device comprises at least one gate contact element , a plurality of source contact elements and a plurality of drain contact elements arranged on top of said semiconductor die , wherein the gate, source, and drain contact elements are arranged in parallel and each has the form of an elongated strip; a loaf bump disposed on each of the plurality of source contact elements and the plurality of drain contact elements , respectively, wherein each loaf bump extends along an area of the respective source contact elements and drain contact elements , wherein each loaf bump has the form of an elongated strip, substantially covering all of the source and drain contact elements, and wherein the loaf bumps consist of solder or a conductive epoxy; a loaf bump on the at least one gate contact element which extends along an area of the gate contact element and which has the form of an elongated strip, substantially covering all of the gate contact element, and a lead-frame having a first area comprising gate, source and drain lead-fingers (204, 206, 208; 304a, 306a, 310) being shaped such that the lead-fingers connect to the loaf bump for connecting to each of the at least one gate contact element and connect to the loaf bumps for connecting to each of the plurality of source contact elements and the plurality of drain contact elements , respectively. a semiconductor die having a power FET device fabricated on a substrate thereof, wherein the power FET device comprises at least one gate contact element , a plurality of source contact elements and a plurality of drain contact elements arranged on top of said semiconductor die , wherein the gate, source, and drain contact elements are arranged in parallel and each has the form of an elongated strip; a loaf bump disposed on each of the plurality of source contact elements and the plurality of drain contact elements , respectively, wherein each loaf bump extends along an area of the respective source contact elements and drain contact elements , wherein each loaf bump has the form of an elongated strip, substantially covering all of the source and drain contact elements, and wherein the loaf bumps consist of solder or a conductive epoxy; a loaf bump on the at least one gate contact element which extends along an area of the gate contact element and which has the form of an elongated strip, substantially covering all of the gate contact element, and a lead-frame having a first area comprising gate, source and drain lead-fingers (204, 206, 208; 304a, 306a, 310) being shaped such that the lead-fingers connect to the loaf bump for connecting to each of the at least one gate contact element and connect to the loaf bumps for connecting to each of the plurality of source contact elements and the plurality of drain contact elements , respectively.
The crystal form I of Compound 1, comprising an X-ray powder diffraction pattern with characteristic diffraction peaks at the following 2θ angles: 15.50±0.2°, 17.00 ± 0.2°, 20.86 ± 0.2°;
A method implemented by a wireless communication device for receiving system information for a wireless communication system in parts, the method comprising: receiving , over a first channel , a first part of system information, said first part of system information including explicit signaling that indicates a sequence with which the wireless communication device is to demodulate or descramble a second part of system information, wherein the second part of system information includes initial access information required for a wireless communication device to initially access the wireless communication system ; and receiving the second part of system information over a second channel , by demodulating or descrambling the second part using the indicated sequence . receiving , over a first channel , a first part of system information, said first part of system information including explicit signaling that indicates a sequence with which the wireless communication device is to demodulate or descramble a second part of system information, wherein the second part of system information includes initial access information required for a wireless communication device to initially access the wireless communication system ; and receiving the second part of system information over a second channel , by demodulating or descrambling the second part using the indicated sequence .
A computer-implemented method for generating ephemeral identifiers, the method comprising: determining, by one or more computing devices, a current time-count; determining, by the one or more computing devices, a time-modified identifier based at least in part on a static identifier and the current time-count; and determining, by the one or more computing devices, an ephemeral identifier based at least in part on the time-modified identifier and a rotation key. determining, by one or more computing devices, a current time-count; determining, by the one or more computing devices, a time-modified identifier based at least in part on a static identifier and the current time-count; and determining, by the one or more computing devices, an ephemeral identifier based at least in part on the time-modified identifier and a rotation key.