mhurhangee/ep-ind-claims huggingface dataset:
Table or bench with a top, legs and a collapsible stand which is fastened to the underside of the top, with pivot bearings for the legs which are arranged on the underside of the top, with support struts which engage in an articulated manner on the legs and which, in the set-up position, extend diagonally with respect to the underside of the top, wherein, in the stacking position, the legs and the support struts extend approximately parallel to the underside of the top, and wherein, in the set-up position, the legs are locked with a locking element of the collapsible stand, which locking element is configured as a pivot lever mounted at one end which locks at least one leg in a gravity-actuated manner, and the locking element is supported and mounted in a bracket on the underside of the top, characterized in that the bracket has an insertion ramp for a transverse bolt at the free end of the support struts, wherein the support struts are displaceable with a free end, namely with the transverse bolt, in a guide element of the collapsible stand, wherein the guide element is formed in the shape of a bow so that the bolt is guided between the underside of the top and the guide element.
Mixer-wagon for animal food products, which comprises: - a support frame, which is extended according to a longitudinal axis thereof between a front side and a rear side of said mixer-wagon, and is extended according to a transverse axis thereof, orthogonal to said longitudinal axis, between two lateral flanks of said mixer-wagon that are substantially parallel to each other; - at least one pair (6, 7) of wheels rotatably constrained to said support frame and intended to be abutted against the ground in order to allow said mixer-wagon to be moved at least according to an advancement direction with said front side that precedes said rear side; - a containment tank mounted on said support frame and intended to house, at its interior, at least one food product in the form of loose material; - mixing means arranged inside said containment tank and drivable to move the loose material of said food product to the interior of said containment tank in order to mix said loose material; - distribution means operatively connected to an outlet opening of said containment tank in order to receive said food product, and provided with at least one dispensing outlet arranged along a corresponding one of said lateral flanks in order to dispense said food product on a ground portion adjacent to said lateral flank; said mixer-wagon being characterized in that it also comprises at least one brushing element mechanically connected to said support frame and arranged, at least in an operative configuration thereof, along said corresponding lateral flank between the dispensing outlet of said distribution means and the front side of said mixer-wagon, and drivable to operate on the ground portion adjacent to said corresponding lateral flank in order to push a residual part of an old food product deposited on the ground away from said lateral flank and at least partially beyond said ground portion. - a support frame, which is extended according to a longitudinal axis thereof between a front side and a rear side of said mixer-wagon, and is extended according to a transverse axis thereof, orthogonal to said longitudinal axis, between two lateral flanks of said mixer-wagon that are substantially parallel to each other; - at least one pair (6, 7) of wheels rotatably constrained to said support frame and intended to be abutted against the ground in order to allow said mixer-wagon to be moved at least according to an advancement direction with said front side that precedes said rear side; - a containment tank mounted on said support frame and intended to house, at its interior, at least one food product in the form of loose material; - mixing means arranged inside said containment tank and drivable to move the loose material of said food product to the interior of said containment tank in order to mix said loose material; - distribution means operatively connected to an outlet opening of said containment tank in order to receive said food product, and provided with at least one dispensing outlet arranged along a corresponding one of said lateral flanks in order to dispense said food product on a ground portion adjacent to said lateral flank;
A control information transmission method, applied to a base station, comprising: transmitting first control information in a physical downlink control channel, wherein the first control information is used for indicating a downlink resource area, the downlink resource area is used for transmitting the physical downlink control channel and a physical downlink data channel, or for transmitting the physical downlink data channel; transmitting second control information in the physical downlink control channel or the physical downlink data channel; and determining, according to the second control information, whether to transmit third control information in the physical downlink data channel, wherein the first control information, the second control information, and the third control information are transmitted in a same slot, wherein in a time domain, a symbol in which an ending position of transmitting the third control information is located is prior to a symbol in which a starting position of transmitting the downlink data is located, or the ending position of transmitting the third control information and the starting position of transmitting the downlink data are located in a same symbol. transmitting first control information in a physical downlink control channel, wherein the first control information is used for indicating a downlink resource area, the downlink resource area is used for transmitting the physical downlink control channel and a physical downlink data channel, or for transmitting the physical downlink data channel; transmitting second control information in the physical downlink control channel or the physical downlink data channel; and determining, according to the second control information, whether to transmit third control information in the physical downlink data channel, wherein the first control information, the second control information, and the third control information are transmitted in a same slot, wherein in a time domain, a symbol in which an ending position of transmitting the third control information is located is prior to a symbol in which a starting position of transmitting the downlink data is located, or wherein the first control information, the second control information, and the third control information are transmitted in a same slot, wherein in a time domain, a symbol in which an ending position of transmitting the third control information is located is prior to a symbol in which a starting position of transmitting the downlink data is located, or the ending position of transmitting the third control information and the starting position of transmitting the downlink data are located in a same symbol.
A nozzle for plasma deposition on a surface of an object, the nozzle comprising: an outer body having a longitudinal axis, the outer body comprising an inlet and an opening located on the opposite site and downstream of the inlet, wherein the inlet is coaxial to the outer body for receiving a plasma and the object; a radial inlet to the outer body for receiving a precursor material; a mixing chamber within the outer body for receiving the plasma and the object from the inlet allowing a mixing of the plasma and the precursor material and a deposition on the surface of the object; characterised in that the inlet defines a shield chamber which extends for a predetermined length along the longitudinal axis within the outer body downstream towards the opening, for protecting the object from premature deposition for the predetermined length. an outer body having a longitudinal axis, the outer body comprising an inlet and an opening located on the opposite site and downstream of the inlet, wherein the inlet is coaxial to the outer body for receiving a plasma and the object; a radial inlet to the outer body for receiving a precursor material; a mixing chamber within the outer body for receiving the plasma and the object from the inlet allowing a mixing of the plasma and the precursor material and a deposition on the surface of the object; characterised in that the inlet defines a shield chamber which extends for a predetermined length along the longitudinal axis within the outer body downstream towards the opening, for protecting the object from premature deposition for the predetermined length.
Plain bearing material having a matrix material, comprising from 2.1 to 2.6% by weight of iron, from 0.05 to 0.2% by weight of zinc, from 0.015 to 0.15% by weight of phosphorus, ≤ 0.03% by weight of lead, ≤ 0.2% by weight of impurities which are caused by smelting metallurgy and balance copper, where applicable having at least one hard material and where applicable having at least one solid lubricant, characterised by at least one additive which is selected from the group tellurium, sulphur, chromium and zirconium and which is dispersed at an overall quantity between 0.01 and 2.0% by weight within the matrix material and which is present in the form of particles in the matrix material, wherein 90% of the measurable particles have a maximum extent of 30 μm.
A method for adapting transmission parameters in a transmitter (T x) in communication with at least one antenna (27; 38; 47; 57; 77, 88), said method comprising: - transmitting a signal from the transmitter (T x), characterized in that said method further comprises: - determining at least one reflection coefficient (S 11) of said signal for each antenna (27; 38; 47; 57; 77, 88) by comparing the transmitted signal with a reflection of the same signal, which at least one reflection coefficient (S 11) is a measure of the transmitted power reflected by each antenna (27; 38; 47; 57; 77, 88), and - adapting the transmission parameters based on the determined reflection coefficient (S 11) wherein the transmission parameters comprises power allocation among carriers, beamforming weights, modulation and/or coding. - transmitting a signal from the transmitter (T x), - determining at least one reflection coefficient (S 11) of said signal for each antenna (27; 38; 47; 57; 77, 88) by comparing the transmitted signal with a reflection of the same signal, which at least one reflection coefficient (S 11) is a measure of the transmitted power reflected by each antenna (27; 38; 47; 57; 77, 88), and - adapting the transmission parameters based on the determined reflection coefficient (S 11) wherein the transmission parameters comprises power allocation among carriers, beamforming weights, modulation and/or coding.
Method for controlling the oscillation frequency of a piezoelectric balance-spring in a clockwork, characterized in that the oscillation frequency of the piezoelectric balance-spring is controlled by adjusting a capacitor connected in parallel with the balance-spring.
A pressure-driven metered mixing dispensing pump, comprising: a housing; a fluid inlet; a piston disposed in the housing at least partially defining first, second and third chambers (315, 316, 317), the first and second chambers (315, 316) each in fluid communication with the third chamber, the piston being configured to, in response to a first fluid entering the first chamber via the fluid inlet, move in a first direction to decrease the volume of the second chamber thereby ejecting a second fluid from the second chamber into the third chamber; a spring to move the piston in a second direction to decrease the volume of the first chamber thereby ejecting at least some of the first fluid from the first chamber into the third chamber thereby mixing the at least some of the first fluid and the second fluid to form a mixture; and an outlet to discharge the mixture from the third chamber; wherein a ratio of a diameter of the piston to a diameter of the second chamber is selected based on at least one of a force exerted by the spring when the spring is at least partially compressed, a piston friction force, and/or a force exerted on the piston by the second fluid in the second chamber. a fluid inlet; a piston disposed in the housing at least partially defining first, second and third chambers (315, 316, 317), the first and second chambers (315, 316) each in fluid communication with the third chamber, the piston being configured to, in response to a first fluid entering the first chamber via the fluid inlet, move in a first direction to decrease the volume of the second chamber thereby ejecting a second fluid from the second chamber into the third chamber; a spring to move the piston in a second direction to decrease the volume of the first chamber thereby ejecting at least some of the first fluid from the first chamber into the third chamber thereby mixing the at least some of the first fluid and the second fluid to form a mixture; and an outlet to discharge the mixture from the third chamber;
A jounce control damping system comprising: - an elongated housing containing a damping medium; - a moveable outer piston assembly disposed within the housing; - a movable inner piston assembly disposed at least partially within the outer piston assembly; - said inner piston assembly being configured to engage a primary piston assembly as said primary piston assembly is moved beyond a first compression movement distance causing the inner piston assembly to move in the compressive direction; and - said outer piston assembly being configured to move in the compressive direction in response to the inner piston assembly moving in the compressive direction beyond a second compressive movement distance, - wherein the primary piston assembly provides a first compression damping force during the first compression movement distance of the primary piston; - wherein the inner piston assembly provides a second compression damping force during the second compression movement distance of the inner piston assembly and the outer piston assembly provides a third compression damping force greater than the second compression damping force during the third compression movement distance; - a second housing, wherein the outer piston assembly is disposed and moveable within the second housing, and wherein the second housing is formed integral with the elongated housing. - an elongated housing containing a damping medium; - a moveable outer piston assembly disposed within the housing; - a movable inner piston assembly disposed at least partially within the outer piston assembly; - said inner piston assembly being configured to engage a primary piston assembly as said primary piston assembly is moved beyond a first compression movement distance causing the inner piston assembly to move in the compressive direction; and - said outer piston assembly being configured to move in the compressive direction in response to the inner piston assembly moving in the compressive direction beyond a second compressive movement distance, - wherein the primary piston assembly provides a first compression damping force during the first compression movement distance of the primary piston; - wherein the inner piston assembly provides a second compression damping force during the second compression movement distance of the inner piston assembly and the outer piston assembly provides a third compression damping force greater than the second compression damping force during the third compression movement distance; - a second housing, wherein the outer piston assembly is disposed and moveable within the second housing, and wherein the second housing is formed integral with the elongated housing.
A method for handover performed by a Wireless Communication Device, WCD, connected to a first network node, wherein a delay of a backhaul link between the first network node and a second network node exceeds a threshold value, the method comprising: - obtaining, from the first network node in association with a handover of the WCD from the first network node to the second network node, information comprising at least part of a WCD Context related to the WCD; - connecting to the second network node - forwarding the obtained information to the second network node, thereby enabling the second network node to derive the complete WCD Context based on the information. - obtaining, from the first network node in association with a handover of the WCD from the first network node to the second network node, information comprising at least part of a WCD Context related to the WCD; - connecting to the second network node - forwarding the obtained information to the second network node, thereby enabling the second network node to derive the complete WCD Context based on the information.
A process for producing an ethylene-based polymer, the process comprising contacting ethylene and at least one free radical initiator in a reaction configuration, comprising a first tubular reaction zone 1 and a last tubular reaction zone i, in which i is greater than or equal to (≥) 3, under high pressure polymerization conditions, and in which the first reaction zone 1 has a peak polymerization temperature greater than the peak temperature of the ith reaction zone, the difference in these two peak temperatures is ≥ 30°C, wherein one or more polyenes are added as a branching agent to at least one reaction zone; and the ethylene-based polymer comprises the following properties: a density from 0.9190 g/cc to 0.9240 g/cc; a hexane extractable level that is less than or equal to the lower of: (A+(B ∗ density (g/cc))+(C ∗ log dg/min)) based on total weight of the ethylene-based polymer; where A= 250.5 wt%, B = -270 wt%/(g/cc), C = 0.25 wt%/[log(dg/min)], or 2.0 wt%; a G' (at G" = 500 Pa, 170°C) that meets the following equation: G' ≥ D + E[log], where D = 150 Pa and E = -60 Pa/[log(dg/min)]; and a melt index from 1.0 to 20 dg/min. a density from 0.9190 g/cc to 0.9240 g/cc; a hexane extractable level that is less than or equal to the lower of: (A+(B ∗ density (g/cc))+(C ∗ log dg/min)) based on total weight of the ethylene-based polymer; where A= 250.5 wt%, B = -270 wt%/(g/cc), C = 0.25 wt%/[log(dg/min)], or 2.0 wt%; (A+(B ∗ density (g/cc))+(C ∗ log dg/min)) based on total weight of the ethylene-based polymer; where A= 250.5 wt%, B = -270 wt%/(g/cc), C = 0.25 wt%/[log(dg/min)], or 2.0 wt%; a G' (at G" = 500 Pa, 170°C) that meets the following equation: G' ≥ D + E[log], where D = 150 Pa and E = -60 Pa/[log(dg/min)]; and a melt index from 1.0 to 20 dg/min.
An anesthesia delivery system, comprising: a first section comprising a housing including a first planar work surface above a ground level wherein the first planar work surface is provided on a bottom portion of the first section; a second section comprising a base portion including a second planar work surface, for providing a workspace surface, at least one pneumatic connection, and at least one electrical connection, wherein the second section is pneumatically connected to the first section by a suction supply line and at least one anesthesia gas supply line, and wherein the first section is arranged to rotate and translate relative to the second section and an inlet breathing circuit attachment port arranged for connection to an anesthesia gas supply and an outlet breathing circuit attachment port arranged for connection to a patient, wherein said breathing circuit attachment ports each have a rotating body comprising a rotating cap embedded within the first planar work surface of the housing of the first section, a port housing extending downward from the rotating cap and embedded within the housing of the first section, wherein the port housing is cylindrical in shape and defines a space for receiving a gas, and at least one limb, wherein the at least one limb may be inspiratory, expiratory, or a combination thereof. a first section comprising a housing including a first planar work surface above a ground level wherein the first planar work surface is provided on a bottom portion of the first section; a second section comprising a base portion including a second planar work surface, for providing a workspace surface, at least one pneumatic connection, and at least one electrical connection, wherein the second section is pneumatically connected to the first section by a suction supply line and at least one anesthesia gas supply line, and wherein the first section is arranged to rotate and translate relative to the second section and an inlet breathing circuit attachment port arranged for connection to an anesthesia gas supply and an outlet breathing circuit attachment port arranged for connection to a patient, wherein said breathing circuit attachment ports each have a rotating body comprising a rotating cap embedded within the first planar work surface of the housing of the first section, a port housing extending downward from the rotating cap and embedded within the housing of the first section, wherein the port housing is cylindrical in shape and defines a space for receiving a gas, and at least one limb, wherein the at least one limb may be inspiratory, expiratory, or a combination thereof.
A semiconductor package comprising: an encapsulant comprising: an upper side; and a lower side mountable on a surface; a semiconductor substrate in the encapsulant, the substrate comprising: a backside proximal the lower side of the encapsulant for thermal connection to the surface, wherein the backside is recessed with respect to the lower side of the encapsulant to form a recess; and an active side distal the lower side of the encapsulant, the active side of the substrate including a plurality of die contacts; a plurality of electrically conductive interconnects extending to the lower surface of the encapsulant for electrically connecting the die contacts of the substrate to the surface, and a heat spreader in thermal contact with the backside of the semiconductor substrate for aiding thermal connection to the surface, characterised in that: the recess is partly filled with a thermally conductive material and partly filled with said encapsulant, and the thermally conductive material in the recess is arranged in a plurality of vias. an encapsulant comprising: an upper side; and a lower side mountable on a surface; an upper side; and a lower side mountable on a surface; a semiconductor substrate in the encapsulant, the substrate comprising: a backside proximal the lower side of the encapsulant for thermal connection to the surface, wherein the backside is recessed with respect to the lower side of the encapsulant to form a recess; and an active side distal the lower side of the encapsulant, the active side of the substrate including a plurality of die contacts; a backside proximal the lower side of the encapsulant for thermal connection to the surface, wherein the backside is recessed with respect to the lower side of the encapsulant to form a recess; and an active side distal the lower side of the encapsulant, the active side of the substrate including a plurality of die contacts; a plurality of electrically conductive interconnects extending to the lower surface of the encapsulant for electrically connecting the die contacts of the substrate to the surface, and a heat spreader in thermal contact with the backside of the semiconductor substrate for aiding thermal connection to the surface, the recess is partly filled with a thermally conductive material and partly filled with said encapsulant, and the thermally conductive material in the recess is arranged in a plurality of vias.