mhurhangee/patent-ind-claim-en huggingface dataset:
Packaging machine for packaging goods to be packaged by means of a stretchable film, having a film transport device for the supply of film to goods to be packaged, which has a first and a second belt conveyor device for transporting the film, wherein the belt conveyor devices each comprise a first and a second transport belt , which are driven synchronously in a film transport direction (X) predefined by the film transport device and are arranged beside each other, wherein at least the second belt conveyor device can be moved in a direction (Y) at right angles to the film transport direction (X), and having a movable film guide element , with which the film can be inserted into the film transport device , wherein the film guide element comprises a guide plate for guiding the film, which has a first recess and a second recess in an upper edge facing the belt conveyor devices in the vertical direction (Z), wherein the first belt conveyor device can be inserted into the first recess and the second belt conveyor device can be inserted into the second recess , characterized in that the film transport device has cleaning devices for the belt conveyor devices , and in that a cleaning device comprises a cleaning element which is in direct contact with the surface of a transport belt which touches the stretchable film during the film transport.
A master-slave power supply system , which comprises: (a) a master power supply unit having an output power port; (b) one or more slave units (220a-c), each of the slave units having its own output power port; wherein the output power port of the master unit, as well as the output port of all the slave units are connected in parallel; and wherein a bridging cable connects between the master unit and a first slave unit, and additional bridging cables connect respectively each of the slave units to a next one, until a last slave unit, characterized in that each of the slave units (220a-c) is operable in either a current feedback mode or in a voltage feedback mode, wherein at least a voltage feedback signal (FB) is conveyed from the master unit to all the slave units in parallel over said bridging cables , each of the slave units further comprising decision circuitry for dynamically and autonomously selecting, using an internal controller, whether to operate in the current feedback mode or in the voltage feedback mode. (a) a master power supply unit having an output power port; (b) one or more slave units (220a-c), each of the slave units having its own output power port; wherein the output power port of the master unit, as well as the output port of all the slave units are connected in parallel; and wherein a bridging cable connects between the master unit and a first slave unit, and additional bridging cables connect respectively each of the slave units to a next one, until a last slave unit, characterized in that each of the slave units (220a-c) is operable in either a current feedback mode or in a voltage feedback mode, wherein at least a voltage feedback signal (FB) is conveyed from the master unit to all the slave units in parallel over said bridging cables , each of the slave units further comprising decision circuitry for dynamically and autonomously selecting, using an internal controller, whether to operate in the current feedback mode or in the voltage feedback mode. wherein the output power port of the master unit, as well as the output port of all the slave units are connected in parallel; and wherein a bridging cable connects between the master unit and a first slave unit, and additional bridging cables connect respectively each of the slave units to a next one, until a last slave unit, characterized in that each of the slave units (220a-c) is operable in either a current feedback mode or in a voltage feedback mode, wherein at least a voltage feedback signal (FB) is conveyed from the master unit to all the slave units in parallel over said bridging cables , each of the slave units further comprising decision circuitry for dynamically and autonomously selecting, using an internal controller, whether to operate in the current feedback mode or in the voltage feedback mode.
A photodiode structure comprising multiple light trapping elements, each light trapping element comprising an N-type silicon layer with a recessed structure therein, an intrinsic silicon layer overlying the N-type silicon layer including a side region and a bottom region inside the recessed structure , and a P-type silicon layer as an inner layer overlying the intrinsic silicon layer inside the recessed structure , forming a radial PIN junction around a nominal axis (A) of the recessed structure , characterised in that any adjacent two of recessed structures of the multiple light trapping elements are set with a distance (b1) in a range of 1300 nm to 2000 nm.
A hydrogel composition, comprising a mixture of first and second peptide derivatives in a ratio of from 1:4 to 4:1, wherein the first peptide derivatives comprise ASL-GA-GA, the second peptide derivatives comprise ASL-GA-X, in which ASL is an aromatic stacking ligand, which is Fmoc, GA is the amino acid phenylalanine (F), and X is an amino acid selected from neutral amino acid serine (S), positively charged amino acids arginine (R), and lysine (K), and negatively charged amino acids aspartic acid (D) and glutamic acid (E).
A pressure detector comprising: a sensing unit comprising a plate-shaped diaphragm , a first diaphragm electrode provided on one surface of the diaphragm , a second diaphragm electrode provided on the other surface of the diaphragm , and a bonding portion provided on a peripheral portion of the diaphragm ; a first board comprising a first board body shaped in a plate and bonded to one surface of the bonding portion of the sensing unit and a first board electrode provided on a surface of the first board body facing the first diaphragm electrode ; and a second board comprising a second board body shaped in a plate and bonded to the other surface of the bonding portion of the sensing unit and a second board electrode provided on a surface of the second board body facing the second diaphragm electrode , wherein the first board body comprises a first pressure inlet penetrating through the first board body , and the second board body comprises a second pressure inlet penetrating through the second board body , characterised in that the first board body further comprises a first groove provided on the surface facing the first diaphragm electrode , the first groove being in communication with the first pressure inlet , and the second board body further comprises a second groove provided on the surface facing the second diaphragm electrode , the second groove being in communication with the second pressure inlet . a sensing unit comprising a plate-shaped diaphragm , a first diaphragm electrode provided on one surface of the diaphragm , a second diaphragm electrode provided on the other surface of the diaphragm , and a bonding portion provided on a peripheral portion of the diaphragm ; a first board comprising a first board body shaped in a plate and bonded to one surface of the bonding portion of the sensing unit and a first board electrode provided on a surface of the first board body facing the first diaphragm electrode ; and a second board comprising a second board body shaped in a plate and bonded to the other surface of the bonding portion of the sensing unit and a second board electrode provided on a surface of the second board body facing the second diaphragm electrode , wherein the first board body comprises a first pressure inlet penetrating through the first board body , and the second board body comprises a second pressure inlet penetrating through the second board body , characterised in that the first board body further comprises a first groove provided on the surface facing the first diaphragm electrode , the first groove being in communication with the first pressure inlet , and the second board body further comprises a second groove provided on the surface facing the second diaphragm electrode , the second groove being in communication with the second pressure inlet .
An articulated joint for orthopaedic orthoses or braces designed for rehabilitation or stabilisation of the spinal column or joints of the body in general, said articulated joint comprising two half parts reciprocally connected and retained by a common rotation pin , each of which, at opposite ends relative to the rotation pin, is stably associated with each end of respective bars , so as to create a jointed mechanism applicable in the point of the orthosis that requires an adjustable angular movement, wherein said two half parts comprise grooves disposed on the inner side thereof facing towards the inner side of the opposite part, said grooves being reciprocally offset in such a manner as to enable the reciprocal penetration between the two half parts and wherein at least one of said two half parts comprises a seat into which a selector provided with a stem penetrates, the stem being moved from an unlocking position to a locking one in which it penetrates into a seat of the second half part , respectively allowing or blocking the angular rotation of one half part relative to the other , i.e. of one bar relative to the other , in opposition to one or more springs , characterised in that said first half part is provided with a semi-circular groove and a seat disposed in a radial direction, whilst the second half part is provided with a groove which delimits a first tooth , in turn adapted to define a seat , which, during use, is disposed on the same axis in the seat present in the first half part , and a second tooth adapted to define a seat .
A combination comprising 6-(2,4-dichlorophenyl)-5-[4-[ -1-(3-fluoropropyl)pyrrolidin-3-yl]oxyphenyl]-8,9-dihydro-7H-benzo annulene-2-carboxylic acid, or a pharmaceutically acceptable salt thereof, and palbociclib.
Production plant for workpieces , in particular vehicle body components, wherein the production plant has a supply station for workpieces and at least one automatic production device (18-22), which has at least one program-controlled production means and a processing area , and the production plant has at least two load-receiving means , which are different from one another and each have a type identification , wherein the load-receiving means of different types (A, B, C, D) are adapted to different workpieces , wherein the production device (18-22) also has: - a processing area , which is designed for sequentially receiving at least two load-receiving means which are different from one another, - a recording device , which is designed to record a type identification of one of the load-receiving means , - a control device , which is set up to determine the type (A, B, C, D) of the load-receiving means on the basis of the type identification recorded by the recording device and to select and execute a control program for the at least one production means from a multiplicity of control programs on the basis of the type (A, B, C, D) determined, - wherein a production means is designed for processing a workpiece , characterized in that , - at the processing area there is a production means , which is designed for holding a workpiece in a suspended state during the processing process and for transferring the workpiece to another load-receiving means of a same or different type (A, B, C, D) and in that - the production means are designed as industrial robots. - a processing area , which is designed for sequentially receiving at least two load-receiving means which are different from one another, - a recording device , which is designed to record a type identification of one of the load-receiving means , - a control device , which is set up to determine the type (A, B, C, D) of the load-receiving means on the basis of the type identification recorded by the recording device and to select and execute a control program for the at least one production means from a multiplicity of control programs on the basis of the type (A, B, C, D) determined, - wherein a production means is designed for processing a workpiece , characterized in that , - at the processing area there is a production means , which is designed for holding a workpiece in a suspended state during the processing process and for transferring the workpiece to another load-receiving means of a same or different type (A, B, C, D) and in that - the production means are designed as industrial robots.
Routing circuitry in an integrated circuit ("IC") comprising: a vertical channel (101V1) comprising a plurality of routing lines; a horizontal channel (101H0) comprising a plurality of routing lines; and a first single level selection circuit switch array comprising a plurality of selectable inputs and a plurality of outputs, the first single level selection circuit switch array being coupled to receive inputs from the vertical channel (101V1) and the horizontal channel (101H0) and to provide outputs to inputs of a plurality of logic elements of a first logic region and to routing wires in at least one of the vertical channel (101V1) and the horizontal channel (101H0), wherein the routing circuitry further comprises for the logic region of the plurality of logic regions, a second single level selection circuit switch array comprising a plurality of selectable inputs and a plurality of outputs, wherein the first single level selection circuit switch array is coupled to receive input from a first portion of the plurality of routing lines of the vertical channel (101V1) and a first portion of the plurality of routing lines of the horizontal channel (101H0), and the first single level selection circuit switch array is further coupled to receive inputs from outputs of the plurality of logic elements of the first logic region and optionally further from a second logic region; and wherein the second single level selection circuit switch array is coupled to receive input from a second portion of the plurality of routing lines of the vertical channel (101V1) and a second portion of the plurality of routing lines of the horizontal channel (101H0). a vertical channel (101V1) comprising a plurality of routing lines; a horizontal channel (101H0) comprising a plurality of routing lines; and wherein the first single level selection circuit switch array is coupled to receive input from a first portion of the plurality of routing lines of the vertical channel (101V1) and a first portion of the plurality of routing lines of the horizontal channel (101H0), and the first single level selection circuit switch array is further coupled to receive inputs from outputs of the plurality of logic elements of the first logic region and optionally further from a second logic region; and wherein the second single level selection circuit switch array is coupled to receive input from a second portion of the plurality of routing lines of the vertical channel (101V1) and a second portion of the plurality of routing lines of the horizontal channel (101H0).
A method for producing a composition, comprising the steps of: dry milling a solid biologically active material, a surfactant and a millable grinding matrix in a mill comprising a plurality of milling bodies, for a time period sufficient to produce particles of the biologically active material dispersed in an at least partially milled grinding matrix wherein the average particle size determined on a particle number basis is equal to or less than 1000nm, or wherein the median particle size determined on a particle volume basis is equal to or less than 1000nm, and wherein the total combined amount of biologically active material, surfactant and grinding matrix in the mill at any given time is equal to or greater than a mass selected from the group consisting of: 5 kg, 10 kg, 20 kg, 30 kg, 50 kg, 75 kg, 100 kg, 150 kg, 200 kg, 500 kg, 1000 kg, 1500kg and 2000 kg. dry milling a solid biologically active material, a surfactant and a millable grinding matrix in a mill comprising a plurality of milling bodies, for a time period sufficient to produce particles of the biologically active material dispersed in an at least partially milled grinding matrix wherein the average particle size determined on a particle number basis is equal to or less than 1000nm, or wherein the median particle size determined on a particle volume basis is equal to or less than 1000nm, and wherein the total combined amount of biologically active material, surfactant and grinding matrix in the mill at any given time is equal to or greater than a mass selected from the group consisting of: 5 kg, 10 kg, 20 kg, 30 kg, 50 kg, 75 kg, 100 kg, 150 kg, 200 kg, 500 kg, 1000 kg, 1500kg and 2000 kg.
A plasticizer composition, comprising: a terephthalate-based material which is a compound represented by the following Formula 1; and a cyclohexane 1,4-diester-based material which is a compound represented by the following Formula 2; wherein a weight ratio of the terephthalate-based material to the cyclohexane 1,4-diester-based material is in a range of 90: 10 to 30:70: in Formulas 1 and 2, R 1 to R 4 each independently represent an alkyl group having 8 to 10 carbon atoms, and a sum of carbon atoms of R 1 to R 4 is in a range of 34 to 40. a terephthalate-based material which is a compound represented by the following Formula 1; and a cyclohexane 1,4-diester-based material which is a compound represented by the following Formula 2; wherein a weight ratio of the terephthalate-based material to the cyclohexane 1,4-diester-based material is in a range of 90: 10 to 30:70: in Formulas 1 and 2, R 1 to R 4 each independently represent an alkyl group having 8 to 10 carbon atoms, and a sum of carbon atoms of R 1 to R 4 is in a range of 34 to 40.
An insert characterized by : a cylindrical sleeve having a central void and an outer diameter sized to fit into an installation hole of a first part , the central void having a uniform diameter across a length of the cylindrical sleeve ; and a core having a through-hole and a tapered outer wall such that when the core is pulled into the cylindrical sleeve , the cylindrical sleeve expands against the installation hole of the first part to secure the insert to the first part ; wherein said insert being characterised by the through-hole of the core having a threaded portion with a first diameter at a first end of the core and a second portion with a second diameter at a second end of the core , the second diameter being smaller than the first diameter ; wherein the first end of the core is press-fit into the cylindrical sleeve . a cylindrical sleeve having a central void and an outer diameter sized to fit into an installation hole of a first part , the central void having a uniform diameter across a length of the cylindrical sleeve ; and a core having a through-hole and a tapered outer wall such that when the core is pulled into the cylindrical sleeve , the cylindrical sleeve expands against the installation hole of the first part to secure the insert to the first part ; wherein said insert being characterised by the through-hole of the core having a threaded portion with a first diameter at a first end of the core and a second portion with a second diameter at a second end of the core , the second diameter being smaller than the first diameter ; wherein the first end of the core is press-fit into the cylindrical sleeve .
A clutch assembly , comprising: a joint assembly comprising a first joint member drivingly connected to a second joint member by one or more third joint members ; a first shaft drivingly connected to at least a portion of said first joint member ; a first clutch member ; a second clutch member that is selectively engagable with at least a portion of said first clutch member ; a second shaft drivingly connected to at least a portion of said second clutch member ; an actuation assembly operably configured to selectively transition said clutch assembly between a disengaged position and an engaged position ; and wherein said actuation assembly utilizes an amount of rotational force transmitted from said second shaft by engaging said first clutch member with said second clutch member characterised in that said second clutch member further comprises one or more slots extending from an outermost surface of said second clutch member toward said inner surface of said second clutch member ; and wherein said one or more slots in said second clutch member allow at least a portion of said second clutch member to be elastically deformed when said clutch assembly is in an engaged position . a joint assembly comprising a first joint member drivingly connected to a second joint member by one or more third joint members ; a first shaft drivingly connected to at least a portion of said first joint member ; a first clutch member ; a second clutch member that is selectively engagable with at least a portion of said first clutch member ; a second shaft drivingly connected to at least a portion of said second clutch member ; an actuation assembly operably configured to selectively transition said clutch assembly between a disengaged position and an engaged position ; and wherein said actuation assembly utilizes an amount of rotational force transmitted from said second shaft by engaging said first clutch member with said second clutch member characterised in that said second clutch member further comprises one or more slots extending from an outermost surface of said second clutch member toward said inner surface of said second clutch member ; and wherein said one or more slots in said second clutch member allow at least a portion of said second clutch member to be elastically deformed when said clutch assembly is in an engaged position .
Method for monitoring a magnetic bearing apparatus , having a first pair of at least substantially diametrically opposed sensors (S1, S2) and a second pair of at least substantially diametrically opposed sensors (S3, S4), which are arranged such that they are offset in relation to the first pair of sensors (S1, S2) by an angle (α), characterised in that each distance (d1, d2, d3, d4) between a sensor (S1, S2, S3, S4) and a rotating body arranged within the pair of sensors (S1, S2; S3, S4) is ascertained by averaging a plurality of distance measurements over time, wherein the distances (d1, d2, d3, d4) are compared, wherein a warning signal is emitted as soon as a difference in the distances (d1, d2, d3, d4) exceeds a threshold value.