mhurhangee/ep-ind-claims huggingface dataset:
A process for producing cream cheese, said process comprising the steps of separating skim milk by means of microfiltration to produce a casein-enriched milk fraction (1,1') and a whey protein fraction, preparing a milk blend, subjecting the milk blend to fermentation to form a fermented milk blend, and preparing cream cheese from the fermented milk blend, wherein the casein-enriched milk fraction (1, 1') has at least 6.5 % w/w casein and is used in the preparation of the milk blend so that the casein concentration in the milk blend is in the range of from 0.4 to 6.6 % w/w.
Camera for a motor vehicle, including a housing for installation on and/or in the motor vehicle, including a lens disposed on and/or in the housing, including a communication device for wireless communication with an external apparatus, wherein the communication device has an antenna (9, 10), which is formed for emitting and/or receiving electromagnetic communication signals, characterized in that the antenna (9, 10) is disposed on an outer surface of the housing and a flat electrical connector is disposed resting against an inner surface of the housing facing away from the antenna (9, 10), which is electrically coupled to the antenna (9, 10) through a via element extending through a wall of the housing for feeding the antenna (9, 10).
An information transmission method comprising: generating or receiving (S 110), by a first communication node, a control channel description list, wherein the control channel description list comprises description information of N control channels and the description information of the N control channels is used for describing N different types of control channels, and N is a positive integer; and sending, by the first communication node, the control channel description list to a second communication node; wherein the description information of the control channels comprises control channel configuration information; wherein the control channel configuration information comprises one or more of: a subcarrier spacing and a waveform; or the control channel configuration information comprises a number of information bits; wherein before the sending, by the first communication node, the control channel description list to the second communication node, the method further comprises: receiving (S 111), by the first communications node, a random access signal sent by the second communications node; or receiving (S 112), by the first communication node, a request message for the control channel description list sent by the second communication node. generating or receiving (S 110), by a first communication node, a control channel description list, wherein the control channel description list comprises description information of N control channels and the description information of the N control channels is used for describing N different types of control channels, and N is a positive integer; and sending, by the first communication node, the control channel description list to a second communication node; wherein the description information of the control channels comprises control channel configuration information; wherein the control channel configuration information comprises one or more of: a subcarrier spacing and a waveform; or the control channel configuration information comprises a number of information bits; wherein before the sending, by the first communication node, the control channel description list to the second communication node, the method further comprises: receiving (S 111), by the first communications node, a random access signal sent by the second communications node; or receiving (S 112), by the first communication node, a request message for the control channel description list sent by the second communication node. receiving (S 111), by the first communications node, a random access signal sent by the second communications node; or receiving (S 112), by the first communication node, a request message for the control channel description list sent by the second communication node.
A one-step integrally-formed bamboo sleeper, wherein the one-step integrally-formed bamboo sleeper is for ballasted tracks of railways and urban rail transit system and is obtained by using a bamboo unit as a raw material, which is dried and modified at the temperature of 110-180°C, and has undergone adhesive dipping, whirl coating, curing, dopamine solution treatment, anti-mildew and/or anti-corrosion and/or anti-insect treatment, and then is fastened, wherein a density of the one-step integrally-formed bamboo sleeper is 0.9-1.5 g/cm 3.
A pump casing with an integral support flange, comprising: a casing portion for receiving an impeller therein; a suction flange for coupling the casing portion to suction piping of an associated piping system, wherein the suction flange includes a plurality of fastener openings to receive a plurality of fasteners for fixing the pump casing to a flange of the associated piping system;; a support flange portion for coupling the pump casing to a foundation to fix and support the pump casing during operation; wherein the support flange portion is integral to the suction flange and wherein the support flange portion extends radially outwardly from and surrounds the suction flange, wherein the support flange portion includes a plurality of fastener openings to receive a plurality of fasteners for fixing the pump casing to the foundation; and a plurality of stiffening ribs coupling an upper surface of the support flange portion to the casing portion, wherein the plurality of stiffening ribs are positioned between adjacent ones of the plurality of fastener openings in the suction flange such that a radial extension of each one of the plurality of stiffening ribs passes through a center of one of the plurality of fastener openings in the support flange portion; wherein the support flange portion is configured to withstand moments exerted by a motor. a casing portion for receiving an impeller therein; a suction flange for coupling the casing portion to suction piping of an associated piping system, wherein the suction flange includes a plurality of fastener openings to receive a plurality of fasteners for fixing the pump casing to a flange of the associated piping system;; a support flange portion for coupling the pump casing to a foundation to fix and support the pump casing during operation; wherein the support flange portion is integral to the suction flange and wherein the support flange portion extends radially outwardly from and surrounds the suction flange, wherein the support flange portion includes a plurality of fastener openings to receive a plurality of fasteners for fixing the pump casing to the foundation; and a plurality of stiffening ribs coupling an upper surface of the support flange portion to the casing portion, wherein the plurality of stiffening ribs are positioned between adjacent ones of the plurality of fastener openings in the suction flange such that a radial extension of each one of the plurality of stiffening ribs passes through a center of one of the plurality of fastener openings in the support flange portion; wherein the support flange portion is configured to withstand moments exerted by a motor.
Multi-part rear panel structure which forms a separate, replaceable vehicle body component in a vehicle body support structure containing a rear panel which can be arranged between a passenger compartment and a vehicle rear end, characterised in that the rear panel structure also comprises - two vehicle pillars, each of which consists of a plurality of vehicle pillar parts (5, 6, 7, 8, 9, 10, 12, 13), and - connecting means connecting the rear panel to at least vehicle pillar parts (5, 6, 7, 8, 9, 10, 12, 13). - two vehicle pillars, each of which consists of a plurality of vehicle pillar parts (5, 6, 7, 8, 9, 10, 12, 13), and - connecting means connecting the rear panel to at least vehicle pillar parts (5, 6, 7, 8, 9, 10, 12, 13).
A rehearsal system comprising: a plurality of audio buses (412, 414, 212, 214); and a plurality of segments (12, 14), each segment (12, 14) including input circuitry (202, 204) configured to receive at least one input signal from at least one electric musical device (22a, 24a) and to deliver the at least one input signal to one respective audio bus of the plurality of audio buses, wherein each segment (12, 14) accepts input signals from a different musical device (22a, 24a); wherein each segment (12, 14) comprises a band control section (222, 224) for creating an individual mix for the respective segment (12, 14), each band control section (222, 224) comprising a plurality of variable adjustment devices (422, 424) each associated with a corresponding one of the audio buses and each configured to change at least one property of an input signal received by the corresponding of the plurality of segments (12, 14) and carried on the corresponding one of the audio buses independent from input signals carried on other of the plurality of audio buses; and a mixer configured to combine the input signals carried on each of the plurality of audio buses into an output signal, wherein signals representative of mixes generated in band control sections (222, 224) are directed to a respective output signal. a plurality of audio buses (412, 414, 212, 214); and a plurality of segments (12, 14), each segment (12, 14) including input circuitry (202, 204) configured to receive at least one input signal from at least one electric musical device (22a, 24a) and to deliver the at least one input signal to one respective audio bus of the plurality of audio buses, wherein each segment (12, 14) accepts input signals from a different musical device (22a, 24a); wherein each segment (12, 14) comprises a band control section (222, 224) for creating an individual mix for the respective segment (12, 14), each band control section (222, 224) comprising a plurality of variable adjustment devices (422, 424) each associated with a corresponding one of the audio buses and each configured to change at least one property of an input signal received by the corresponding of the plurality of segments (12, 14) and carried on the corresponding one of the audio buses independent from input signals carried on other of the plurality of audio buses; and a mixer configured to combine the input signals carried on each of the plurality of audio buses into an output signal, wherein signals representative of mixes generated in band control sections (222, 224) are directed to a respective output signal.
A brain stimulation system, comprising: a) a computer program product, e.g. a data carrier, preferably a non-transitory data carrier, or a data stream, comprising program code (PI, P1a) which, when loaded and executed on an electronic control unit, provides an operation control system, or b) an electronic control unit with a program code (P1, P1a) loaded on the electronic control unit, wherein the program code (P1, P1a), when executed on the electronic control unit, provides an operation control system, wherein the operation control system is configured to control a brain training and stimulation session for a brain, and wherein the operation control system comprises a plurality of control system functionalities, the control system functionalities comprising: - a stimulation functionality which is configured to cause the electronic control unit to issue a stimulation command to an electrical brain stimulation device to cause the electrical brain stimulation device to perform an electrical brain stimulation procedure; and - a presentation functionality which is configured to cause the electronic control unit to issue a presentation command in order to present a task to be performed by a user on a user interface, wherein the task is presented during the brain training and stimulation session, wherein the operation control system comprises a user condition monitoring functionality which is configured to determine based on user condition data indicative for the current cognitive load experienced by the user during the brain training and stimulation session whether the brain training and stimulation session is continued or whether the brain training and stimulation session is ended or interrupted only temporarily to avoid excessive cognitive load for the user. a) a computer program product, e.g. a data carrier, preferably a non-transitory data carrier, or a data stream, comprising program code (PI, P1a) which, when loaded and executed on an electronic control unit, provides an operation control system, or b) an electronic control unit with a program code (P1, P1a) loaded on the electronic control unit, wherein the program code (P1, P1a), when executed on the electronic control unit, provides an operation control system, - a stimulation functionality which is configured to cause the electronic control unit to issue a stimulation command to an electrical brain stimulation device to cause the electrical brain stimulation device to perform an electrical brain stimulation procedure; and - a presentation functionality which is configured to cause the electronic control unit to issue a presentation command in order to present a task to be performed by a user on a user interface,
An air intake of an aircraft turbojet engine nacelle extending along an axis X in which an air stream circulates from upstream to downstream, the air intake extending circumferentially about axis X and comprising an internal wall pointing to axis X to guide an internal air stream INT and an external wall which is opposite to the internal wall, to guide an external air stream EXT, the walls (21, 22) being connected through a leading edge and an internal partition wall so as to delimit an internal cavity, the air intake comprising means for injecting at least one hot air stream into the internal cavity of the air intake so as to heat the internal wall, the external wall and the leading edge by heat exchange and at least one ventilation opening formed in the external wall to allow exhaust of the hot air stream FAC after heating the internal cavity, which air intake is characterized in that it comprises at least one acoustic member (5, 25') positioned in the internal cavity facing the ventilation opening, the acoustic member comprising at least one absorption material so as to modify acoustic resonant frequencies and/or attenuate acoustic waves formed in the internal cavity via the ventilation opening.
A method of producing a semi-conductor module comprising at least two semi-conductor chips (12, 16, 18) and an interposer (20, 22, 24) which has electrically conductive structures connecting the semi-conductor chips to one another, wherein: - the interposer is printed directly onto a first of the semi-conductor chips, - when the interposer is printed on, the electrically conductive structures are produced by means of electrically conductive ink, and - when the interposer is printed on an electrically insulating layer with openings is printed directly onto the first semi-conductor chip by screen printing, and producing the electrically conductive structures includes: filling the openings with electrically conductive ink and then producing conductor paths by applying the electrically conductive ink to the electrically insulating layer, the electrically conductive ink respectively being discharged by means of an aerosol jet printing method, and - the second semi-conductor chip is mounted on the interposer such that the two semi-conductor chips are arranged one above the other and that the interposer forms an intermediate layer between the two semi-conductor chips. - the interposer is printed directly onto a first of the semi-conductor chips, - when the interposer is printed on, the electrically conductive structures are produced by means of electrically conductive ink, and - when the interposer is printed on an electrically insulating layer with openings is printed directly onto the first semi-conductor chip by screen printing, and producing the electrically conductive structures includes: filling the openings with electrically conductive ink and then producing conductor paths by applying the electrically conductive ink to the electrically insulating layer, the electrically conductive ink respectively being discharged by means of an aerosol jet printing method, and - the second semi-conductor chip is mounted on the interposer such that the two semi-conductor chips are arranged one above the other and that the interposer forms an intermediate layer between the two semi-conductor chips.
Fluid-dynamic device (1, 1a, 1b) with integrated sensor element, comprising a first chamber suitable for the containment and/or the passage of a fluid, provided with an inlet opening operatively connectable to a fluid-dynamic circuit and configured to allow a fluid to enter said first chamber, and with a separate outlet opening, operatively connectable to a fluid-dynamic circuit and configured for the expulsion of said fluid from said first chamber, said first chamber comprising at least one portion that is elastically deformable due to the action of the fluid contained therein and/or passing through said first chamber, to which a sensor element is associated which is sensitive to the deformation of said elastically deformable portion of said first chamber, said sensor element being connectable to a control unit configured to detect a characteristic quantity of said sensor element dependent on the deformation of said elastically deformable portion of said first chamber, said elastically deformable portion being or comprising an elastomeric material, said sensor element being or comprising a deposit of functional material whose electrical properties vary based on its deformation, said deposit being electrically connected to electrical connectors for its connection to said control unit, characterized in that said deposit of functional material is or comprises a nanocomposite material comprising nanoparticles deposited by implantation of nanometer-sized neutral aggregates in said elastomeric material.
A color shifting pigment flake comprising a magnetic core (180, 222) comprising a magnetic layer having a top surface, a bottom surface, and a side surface, a first dielectric layer on the top surface of the magnetic layer, and a second dielectric layer on the bottom surface of the magnetic layer, wherein the side surface of the magnetic layer is absent of a dielectric coating; characterized in that it comprises a first absorber layer for absorbing light on the first dielectric layer; and a second absorber layer for absorbing light on the second dielectric layer; wherein the first dielectric layer is made of a first dielectric material and the second dielectric layer is made of a second dielectric material different from the first dielectric material so that the flake exhibits different colors on each side thereof. a magnetic core (180, 222) comprising a magnetic layer having a top surface, a bottom surface, and a side surface, a first dielectric layer on the top surface of the magnetic layer, and a second dielectric layer on the bottom surface of the magnetic layer, wherein the side surface of the magnetic layer is absent of a dielectric coating; characterized in that it comprises a first absorber layer for absorbing light on the first dielectric layer; and a second absorber layer for absorbing light on the second dielectric layer; wherein the first dielectric layer is made of a first dielectric material and the second dielectric layer is made of a second dielectric material different from the first dielectric material so that the flake exhibits different colors on each side thereof.
A method (400A, 400B, 700) for auto-focus oscillation control in an imaging device, the imaging device including a lens, the method comprising: obtaining (404, 704) a first lens position phase difference; after obtaining the first lens position phase difference, detecting (406, 706) lens movement, the lens movement including transitioning the lens from a first position to a second position; obtaining (408, 708) a second lens position phase difference; comparing (410, 710) the second lens position phase difference to the first lens position phase difference to determine whether the second lens position phase difference is greater than the first lens position phase difference; and in response to determining that the second lens position phase difference is greater than the first lens position phase difference, determining (412, 712) autofocus settings by a contrast detection method. obtaining (404, 704) a first lens position phase difference; after obtaining the first lens position phase difference, detecting (406, 706) lens movement, the lens movement including transitioning the lens from a first position to a second position; obtaining (408, 708) a second lens position phase difference; comparing (410, 710) the second lens position phase difference to the first lens position phase difference to determine whether the second lens position phase difference is greater than the first lens position phase difference; and in response to determining that the second lens position phase difference is greater than the first lens position phase difference, determining (412, 712) autofocus settings by a contrast detection method.
A lifting frame for an industrial truck, for a reach truck in particular, with a load bearing means, three mast frames, each of them having two profile rails connected to each other by at least two cross beams, and with a lifting device which can lift the three mast frames with respect to each other, wherein the three mast frames are realised as an inner mast, a central mast and an outer mast, from which the inner mast is supported in the central mast, and the latter in the outer mast, wherein the central mast comprises a rear section reinforcement which is arranged on a side of the central mast facing towards the vehicle, characterised in that the profile rails (46, 48) of the central mast are connected to two additional cross beams at their rear side, each of them extending in a straight section in parallel and offset to a plane spanned by the profile rails (46, 48), and the ends of the respective additional cross beam are angled for connection with the profile rails, and the rear section reinforcements are arranged from the edge of the straight section before the transition to the angled section.
A method for handoff of a wireless client from a first network device to a second network device in a wired network, the first and second network devices (S1, S2) being in communication with a plurality of access points (AP1, AP2, AP3), the method comprising: receiving data from a wireless client at the second network device via one of the access points; transmitting, from the second network device, a request for a route update for the wireless client to the wired network in response to the received data; prior to network convergence for said route update, receiving, at the second network device, data traffic destined for the wireless client from the first network device and forwarding said data traffic to the wireless client; and transmitting context information for the wireless client from the second network device to other network devices in a proximity group of the second network device. receiving data from a wireless client at the second network device via one of the access points; transmitting, from the second network device, a request for a route update for the wireless client to the wired network in response to the received data; prior to network convergence for said route update, receiving, at the second network device, data traffic destined for the wireless client from the first network device and forwarding said data traffic to the wireless client; and transmitting context information for the wireless client from the second network device to other network devices in a proximity group of the second network device.