mhurhangee/ep-ind-claims huggingface dataset:
A workstation comprising: at least two work tops, each work top having a pair of ends (62, 62); and at least two modules secured to the work tops in alternating relation such that each work top is supported at said ends (62, 62) by a respective pair of said modules, wherein the modules support the work tops in a manner which permits the horizontal elevation of the work tops to be independently adjusted, and each module comprises a pair of uprights (22A, 22B), each supporting a respective work top end (62, 62) and including an inner leg and an outer leg assembled for telescopic movement relative to one another to provide for adjustment of the horizontal elevation of the work top having said end which said each upright (22A, 22B) supports; wherein the inner legs are secured to the respective worktops; each upright (22A, 22B) comprising an elevation mechanism for causing telescopic movement of the inner and outer legs relative to one another thereof so as to raise and lower the work tops; a bridge rigidly securing the top ends of the outer legs to one another; wherein each upright (22A, 22B) supports a respective work top at one of said ends (62, 62) facing an adjacent work top; wherein in the uprights (22A, 22B) supporting each work top, one of the uprights (22A, 22B) has an actuator for selectively driving the elevation mechanism of said one upright (22A, 22B) to provide for said telescopic movement, characterized in that: the actuator comprises a crank shaft rotatably mounted to the inner leg of the one upright and terminating in a 90° bevel gear in mesh with a gear secured to a threaded shaft of the elevation mechanism. at least two work tops, each work top having a pair of ends (62, 62); and at least two modules secured to the work tops in alternating relation such that each work top is supported at said ends (62, 62) by a respective pair of said modules, wherein the modules support the work tops in a manner which permits the horizontal elevation of the work tops to be independently adjusted, and each module comprises a pair of uprights (22A, 22B), each supporting a respective work top end (62, 62) and including an inner leg and an outer leg assembled for telescopic movement relative to one another to provide for adjustment of the horizontal elevation of the work top having said end which said each upright (22A, 22B) supports; wherein the inner legs are secured to the respective worktops; each upright (22A, 22B) comprising an elevation mechanism for causing telescopic movement of the inner and outer legs relative to one another thereof so as to raise and lower the work tops; a bridge rigidly securing the top ends of the outer legs to one another; the actuator comprises a crank shaft rotatably mounted to the inner leg of the one upright and terminating in a 90° bevel gear in mesh with a gear secured to a threaded shaft of the elevation mechanism.
Liposome composition comprising i) 0.001 to 1 % by weight of cyclo-(Arg-Gly-Asp-DPhe-Acha), and/or a salt thereof, ii) 0.01 to 20 % by weight of one or more lipids, iii) 60 to 99.99 % by weight of one or more physiologically acceptable solvents, and optionally iv) 0.0001 to 20 % by weight of one or more further ingredients, selected from the group consisting of α) further active compounds having a skin-care, hair-care and/or inflammation-inhibiting action, and β) further cosmetically acceptable excipients. i) 0.001 to 1 % by weight of cyclo-(Arg-Gly-Asp-DPhe-Acha), and/or a salt thereof, ii) 0.01 to 20 % by weight of one or more lipids, iii) 60 to 99.99 % by weight of one or more physiologically acceptable solvents, and optionally iv) 0.0001 to 20 % by weight of one or more further ingredients, selected from the group consisting of α) further active compounds having a skin-care, hair-care and/or inflammation-inhibiting action, and β) further cosmetically acceptable excipients. α) further active compounds having a skin-care, hair-care and/or inflammation-inhibiting action, and β) further cosmetically acceptable excipients.
A lifter assembly (1; 2; 7), comprising: an outer body (5; 5000), comprising an oil port (52; 5200) and opposed latch ports (571, 572; 5710, 5720); an inner body (6; 6000; 6001) comprising a roller assembly or tappet configured to lift and lower to follow a cam, the inner body further comprising an oil passage (621; 6210, 6220) fluidly communicating with a pin passage (67; 6700) comprising an inner diameter; and a pin assembly (70; 7000; 7001) mounted in the pin passage (67; 6700), the pin assembly comprising for each of the opposed latch ports: a bushing (75, 76; 7500, 7600; 77500) abutting the inner diameter, the bushing comprising a pin port (751; 7751; 77751); and a pin (71, 72; 7100, 7200) comprising a rim (713, 714; 7130, 7240) and a narrow end (710; 7100) configured for sliding in the pin port (751; 7751; 77751); characterized in that the pin port (751; 7751; 77751) and the narrow end (710; 7100) are keyed in an anti-rotation configuration. an outer body (5; 5000), comprising an oil port (52; 5200) and opposed latch ports (571, 572; 5710, 5720); an inner body (6; 6000; 6001) comprising a roller assembly or tappet configured to lift and lower to follow a cam, the inner body further comprising an oil passage (621; 6210, 6220) fluidly communicating with a pin passage (67; 6700) comprising an inner diameter; and a pin assembly (70; 7000; 7001) mounted in the pin passage (67; 6700), the pin assembly comprising for each of the opposed latch ports: a bushing (75, 76; 7500, 7600; 77500) abutting the inner diameter, the bushing comprising a pin port (751; 7751; 77751); and a pin (71, 72; 7100, 7200) comprising a rim (713, 714; 7130, 7240) and a narrow end (710; 7100) configured for sliding in the pin port (751; 7751; 77751); characterized in that the pin port (751; 7751; 77751) and the narrow end (710; 7100) are keyed in an anti-rotation configuration. a bushing (75, 76; 7500, 7600; 77500) abutting the inner diameter, the bushing comprising a pin port (751; 7751; 77751); and a pin (71, 72; 7100, 7200) comprising a rim (713, 714; 7130, 7240) and a narrow end (710; 7100) configured for sliding in the pin port (751; 7751; 77751); characterized in that the pin port (751; 7751; 77751) and the narrow end (710; 7100) are keyed in an anti-rotation configuration.
A connector assembly secured to a panel member and a second connector assembly secured to a second panel member, the second connector assembly including a contact having a first portion and a second portion, the connector assembly comprising: a contact having a first portion and a second portion disposed at a predetermined spacing from each other; and wherein the first and second portions of the connector assembly are pivotably connectable to the first and second portions of the second connector assembly; wherein the predetermined spacing is configured and disposed to receive the second portion of the contact of the second connector assembly; characterized in that: the panel members can be maintained parallel to each other and continously rotated with respect to each other, such as, maintained non-parallel to each other while the first and second portions of the connector assembly and the first and second portions of the second connector assembly are brought to gether into electrical contact from a plurality of directions. a contact having a first portion and a second portion disposed at a predetermined spacing from each other; and wherein the first and second portions of the connector assembly are pivotably connectable to the first and second portions of the second connector assembly; wherein the predetermined spacing is configured and disposed to receive the second portion of the contact of the second connector assembly; characterized in that: the panel members can be maintained parallel to each other and continously rotated with respect to each other, such as, maintained non-parallel to each other while the first and second portions of the connector assembly and the first and second portions of the second connector assembly are brought to gether into electrical contact from a plurality of directions.
A distributed GPS or GNSS method of orbit modeling and propagation, comprising: (a) computing GNSS satellite force model parameters using a Predicted GPS (PGPS) Server; (b) providing said GNSS satellite force model parameters and an initial GNSS satellite position and velocity to a Predicted GPS (PGPS) Client via a communications link, (c) generating within said Predicted GPS (PGPS) Client a predicted Orbital State Vector comprising a satellite position and velocity, by propagating the initial satellite position and velocity provided by said Predicted GPS (PGPS) Server to a different time than the time of said initial satellite position and velocity, using said GNSS satellite force model parameters provided by said Predicted GPS (PGPS) server to said Predicted GPS (PGPS) Client; and (d) providing a local GPS or AGPS device with assistance data derived from said predicted Orbital State Vector without requiring a real-time network connection; wherein said assistance data is derived by converting said predicted Orbital State Vector into a satellite navigation data model format and provided by said Predicted GPS (PGPS) Client to said GPS or AGPS device at a time and in a format required by said GPS or AGPS device. (a) computing GNSS satellite force model parameters using a Predicted GPS (PGPS) Server; (b) providing said GNSS satellite force model parameters and an initial GNSS satellite position and velocity to a Predicted GPS (PGPS) Client via a communications link, (c) generating within said Predicted GPS (PGPS) Client a predicted Orbital State Vector comprising a satellite position and velocity, by propagating the initial satellite position and velocity provided by said Predicted GPS (PGPS) Server to a different time than the time of said initial satellite position and velocity, using said GNSS satellite force model parameters provided by said Predicted GPS (PGPS) server to said Predicted GPS (PGPS) Client; and (d) providing a local GPS or AGPS device with assistance data derived from said predicted Orbital State Vector without requiring a real-time network connection; wherein said assistance data is derived by converting said predicted Orbital State Vector into a satellite navigation data model format and provided by said Predicted GPS (PGPS) Client to said GPS or AGPS device at a time and in a format required by said GPS or AGPS device.
Valve device for an air spring strut of an air suspension system of a motor vehicle, having a valve unit and a housing (10.1) which receives the valve unit and has a bearing face for mounting a head bearing of the air spring strut on the valve device, the housing (10.1) having a surface section (10.2) for supporting the valve device in the air spring strut in a positively locking manner, with the result that a force which is exerted by the head bearing on the valve device can be introduced via the housing (10.1) into the air spring strut, characterized in that a supporting section is configured on the surface section (10.2) of the housing (10.1), onto which supporting section an exchange element which can be disconnected from the housing (10.1) can be arranged from the direction of a center longitudinal axis of the valve device for supporting on the housing (10.1) in a positively locking manner, the housing (10.1) being configured from plastic at least in the region of the surface section (10.2).
A cleaning blade, comprising a strip-shaped elastic blade configured to contact the surface of a member to be cleaned, traveling on an edge line of the elastic blade, to remove a powder from the surface of the member to be cleaned, wherein the edge line of the elastic blade is impregnated with an ultraviolet curable resin comprising a fluorinated acrylic monomer, wherein the ultraviolet curable resin is irradiated with a UV ray, a surface layer harder than the elastic blade is formed on each of an under surface thereof, having the edge line as one line of the under surface and facing the member to be cleaned, and an apical surface thereof, having the edge line as one line of the apical surface and being parallel to a direction of the thickness thereof, and the apical surface is impregnated with the ultraviolet curable resin at a depth of from 50 to 150 μm and the under surface is impregnated with the ultraviolet curable resin at a depth of from 20 to 100 μm and the ultraviolet curable resin is irradiated with a UV ray.
Internet-of-Things, IoT, edge computer system, in which a first virtual operational environment and a second virtual operational environment are set up, wherein - the first virtual operative environment is set up as a producer environment for collecting, processing and/or querying system data of the edge computer system itself or of one or more external systems or devices (13, 14, 15, 16) connected to the edge computer system, - the second virtual operational environment is arranged as an operator environment for collecting, processing and/or controlling operational data from or for the one or more external systems or devices (13, 14, 15, 16), - the virtual operational environments (2, 3) are logically separated from each other in such a way that one virtual operational environment (2, 3) has no access to the other virtual operational environment (2, 3), - the virtual operational environments (2, 3) are each logically assigned to a communication network via at least one virtual network connection (5, 6, 7, 8), and - the virtual network connections (5, 6, 7, 8) are configured in such a way that a connection establishment from the communication network assigned to one of the two virtual operational environments (2, 3) to the communication network assigned to the other virtual operational environment (2, 3) is prevented. - the first virtual operative environment is set up as a producer environment for collecting, processing and/or querying system data of the edge computer system itself or of one or more external systems or devices (13, 14, 15, 16) connected to the edge computer system, - the second virtual operational environment is arranged as an operator environment for collecting, processing and/or controlling operational data from or for the one or more external systems or devices (13, 14, 15, 16), - the virtual operational environments (2, 3) are logically separated from each other in such a way that one virtual operational environment (2, 3) has no access to the other virtual operational environment (2, 3), - the virtual operational environments (2, 3) are each logically assigned to a communication network via at least one virtual network connection (5, 6, 7, 8), and - the virtual network connections (5, 6, 7, 8) are configured in such a way that a connection establishment from the communication network assigned to one of the two virtual operational environments (2, 3) to the communication network assigned to the other virtual operational environment (2, 3) is prevented.
A sulfide solid electrolyte comprising at least one element M selected from the group consisting of Al, Si, B, Mg, Zr, Ti, Hf, Ca, Sr, Sc, Ce, Ta, Nb, W, Mo, and V, and comprising N, and having a crystalline structure, wherein the at least one element M is Al.
A vacuum device, in particular a vacuum pump, having at least one connector for an accessory unit; and having a control device for the accessory unit, wherein the connector is configured both for a mechanical connection of the accessory unit to the vacuum device and for an electrical and/or IT connection of the accessory unit to the control device; wherein a plurality of contact members are provided which are aligned with respect to a connection axis of the mechanical connection and/or of the electrical and/or IT connection; and wherein the contact members are provided in the form of concentric rings about the connection axis or in the form of rings about the connection axis spaced apart along the connection axis.
Process for removing red oils deposits formed in an installation comprising: b) adding a cleaning agent comprising one or more fatty acid esters; c) circulating the cleaning agent within the installation to dissolve the red oils deposit in the cleaning agent and to form a mixture comprising the cleaning agent and the dissolved red oils; and d) removing the mixture comprising the cleaning agent and the dissolved red oils. b) adding a cleaning agent comprising one or more fatty acid esters; c) circulating the cleaning agent within the installation to dissolve the red oils deposit in the cleaning agent and to form a mixture comprising the cleaning agent and the dissolved red oils; and d) removing the mixture comprising the cleaning agent and the dissolved red oils.
Hot air cooking appliance, which comprises a heating block arranged at the upper part and a base arranged at the lower part, said base comprising a housing above which the heating block is removably mounted to define an operating configuration of the cooking appliance, said housing being able to accommodate a cooking vessel provided with an upper opening intended to be arranged opposite said heating block, characterised in that the cooking appliance has a storage configuration in which the heating block is placed above the base in an inverted position by embedding a specific portion of said heating block into the housing of said base.
Electrical cooking appliance, in particular an electric fryer, comprising a cooking assembly, a draining support forming a draining receptacle, and a lid intended for being mounted on the draining support, the electrical cooking appliance adopting a draining configuration in which the draining support supports the cooking assembly, the cooking assembly comprising a vessel capable of receiving a cooking bath, the vessel being provided with a draining device comprising a valve capable of adopting a closed stable return position and an open position, a control member moving the valve into the open position when the electrical cooking appliance adopts the draining configuration, characterised in that when the electrical cooking appliance adopts the draining configuration, the lid is mounted on the draining support supporting the cooking assembly, the lid providing a passage for the flow into the draining receptacle of the cooking bath coming from the draining device.
Thermoplastic composition comprising: a) a1) a thermoplastic resin and a2) a silicon containing rubber and/or b) a polysiloxane-polycarbonate copolymer; and c) a metal (oxy)hydroxide with BET surface area of at least 10 as determined by DIN ISO 9277: 2010, wherein the concentration of a1) the thermoplastic resin is between 50 wt% and 98 wt% with respect to the weight of the total composition, wherein a1) the thermoplastic resin comprises a non-branched polycarbonate and wherein a2) the silicon containing rubber is a graft copolymer having a core/shell structure wherein the core is an elastomeric component containing Si which is polyorganosiloxane. a) a1) a thermoplastic resin and a2) a silicon containing rubber and/or b) a polysiloxane-polycarbonate copolymer; and c) a metal (oxy)hydroxide with BET surface area of at least 10 as determined by DIN ISO 9277: 2010,
A nucleic acid detection method, comprising the following steps to: amplifying a target nucleic acid by a nucleic acid amplification reaction using a primer containing a tag region that is not made double stranded by the nucleic acid amplification reaction, to obtain an amplified double-stranded DNA fragment having a single-stranded region which comprises natural nucleotides, placing the amplified double-stranded DNA fragment in a zone on a chromatographic detection device which is different from a zone where a oligonucleotide probe is immobilized, without a treatment for making the amplified double-stranded DNA fragment single-stranded, diffusing the amplified double-stranded DNA fragment with a solvent on the device towards the zone where the oligonucleotide probe is immobilized, and hybridizing the oligonucleotide probe immobilized on the device with the single-stranded region of the amplified double-stranded DNA fragment. amplifying a target nucleic acid by a nucleic acid amplification reaction using a primer containing a tag region that is not made double stranded by the nucleic acid amplification reaction, to obtain an amplified double-stranded DNA fragment having a single-stranded region which comprises natural nucleotides, placing the amplified double-stranded DNA fragment in a zone on a chromatographic detection device which is different from a zone where a oligonucleotide probe is immobilized, without a treatment for making the amplified double-stranded DNA fragment single-stranded, diffusing the amplified double-stranded DNA fragment with a solvent on the device towards the zone where the oligonucleotide probe is immobilized, and hybridizing the oligonucleotide probe immobilized on the device with the single-stranded region of the amplified double-stranded DNA fragment.
An articulated-arm robot comprising: - a base, - a working head holder, - several lever arms, which are arranged between the base and the working head holder, wherein the lever arms are coupled to one another by means of revolute joints and wherein for each revolute joint at least one actuator is provided, which serves for adjustment of the angle between the two lever arms coupled by means of the respective revolute joint, - a working head, which is arranged on the working head holder, wherein the working head comprises a working spindle, which is arranged in a spindle housing and is mounted in the spindle housing at least at a first bearing point and a second bearing point, - a computational unit which serves for controlling the actuators, characterized in that the first bearing point of the working spindle and the second bearing point of the working spindle each contain at least one sensor for sensing a radial force and that at least one sensor for sensing an axial force is formed on at least one of the two bearing points (14, 15) and that the computational unit is designed for calculating a pressing force of a processing tool against a workpiece based on the radial force and the axial force sensed by means of the sensors (16, 18) so as to infer wear on the cutting edge and/or the workpiece condition, or to increase the accuracy of the articulated-arm robot. - a base, - a working head holder, - several lever arms, which are arranged between the base and the working head holder, wherein the lever arms are coupled to one another by means of revolute joints and wherein for each revolute joint at least one actuator is provided, which serves for adjustment of the angle between the two lever arms coupled by means of the respective revolute joint, - a working head, which is arranged on the working head holder, wherein the working head comprises a working spindle, which is arranged in a spindle housing and is mounted in the spindle housing at least at a first bearing point and a second bearing point, - a computational unit which serves for controlling the actuators, characterized in that the first bearing point of the working spindle and the second bearing point of the working spindle each contain at least one sensor for sensing a radial force and that at least one sensor for sensing an axial force is formed on at least one of the two bearing points (14, 15) and that the computational unit is designed for calculating a pressing force of a processing tool against a workpiece based on the radial force and the axial force sensed by means of the sensors (16, 18) so as to infer wear on the cutting edge and/or the workpiece condition, or to increase the accuracy of the articulated-arm robot.