mhurhangee/patent-ind-claim-en huggingface dataset:
A plasma cutting system comprising: a torch tip having a proximal end and a distal end defining a longitudinal axis (B) extending there through, the torch tip including a plasma plenum and a plasma arc exit orifice located at the distal end of the torch tip; a lead having a distal end configured for connection to the proximal end of the torch tip; an atmospheric vent port disposed between the plasma arc exit orifice and the distal end of the lead, the atmospheric vent port having an outer opening exposed to atmosphere; and a conduit fluidly connecting the plasma plenum and the atmospheric vent port, the conduit comprising: a first channel configured to direct a portion of ionized gas from the plasma plenum in a first direction along the longitudinal axis away from the plasma arc exit orifice; and a second channel , fluidly connected between the first channel and the atmospheric vent port, configured to direct the portion of ionized gas from the first channel in a second direction along the longitudinal axis toward the exit orifice and exit through the atmospheric vent port. a torch tip having a proximal end and a distal end defining a longitudinal axis (B) extending there through, the torch tip including a plasma plenum and a plasma arc exit orifice located at the distal end of the torch tip; a lead having a distal end configured for connection to the proximal end of the torch tip; an atmospheric vent port disposed between the plasma arc exit orifice and the distal end of the lead, the atmospheric vent port having an outer opening exposed to atmosphere; and a conduit fluidly connecting the plasma plenum and the atmospheric vent port, the conduit comprising: a first channel configured to direct a portion of ionized gas from the plasma plenum in a first direction along the longitudinal axis away from the plasma arc exit orifice; and a second channel , fluidly connected between the first channel and the atmospheric vent port, configured to direct the portion of ionized gas from the first channel in a second direction along the longitudinal axis toward the exit orifice and exit through the atmospheric vent port. a first channel configured to direct a portion of ionized gas from the plasma plenum in a first direction along the longitudinal axis away from the plasma arc exit orifice; and a second channel , fluidly connected between the first channel and the atmospheric vent port, configured to direct the portion of ionized gas from the first channel in a second direction along the longitudinal axis toward the exit orifice and exit through the atmospheric vent port.
Device for injecting a current (I) into an electrical cable comprising a clamping device arranged to clamp and hold the electrical cable and exert a pressure on a lateral surface of the electrical cable in proximity to a face of the cable, a machining tool , means for driving and/or guiding the machining tool arranged so as to drill an axial cavity in the face of the cable inwards, an electrical circuit linked to a conductive object inserted into the axial cavity for the injection of the electrical current into the cable.
A process for making animal feed mash agglomerates, said process comprising the steps of: a) providing a first feed fraction comprising one or more starch containing sources, and a second feed fraction; b) milling the first feed fraction; c) adding water to the milled first feed fraction of step (b) to obtain a slurry having a water content of between 50 and 99 wt.% with respect to the weight of the slurry; d) heating the slurry of step (c) for a period of at most 5 minutes under conditions sufficient to allow the starch to gelatinize; e) milling the second feed fraction; f) mixing the heated slurry of step (d) with the second feed fraction of step (e) to obtain animal feed mash agglomerates; wherein at least steps (b) to (d) are carried out independently of step (e), and wherein the method does not comprise a pelleting step. a) providing a first feed fraction comprising one or more starch containing sources, and a second feed fraction; b) milling the first feed fraction; c) adding water to the milled first feed fraction of step (b) to obtain a slurry having a water content of between 50 and 99 wt.% with respect to the weight of the slurry; d) heating the slurry of step (c) for a period of at most 5 minutes under conditions sufficient to allow the starch to gelatinize; e) milling the second feed fraction; f) mixing the heated slurry of step (d) with the second feed fraction of step (e) to obtain animal feed mash agglomerates;
An apparatus, including: a pattern generator circuit configured to output a pulse sequence, the pulse sequence including durations during which frequencies selected from a first frequency range are output, including a count N of different frequencies output serially within the pulse sequence, the pulse sequence further comprising a count M of unique permutations of an order in which the count N of different frequencies are output, the count N being at least three and the count M of unique permutations containing a first permutation of the order in which the count N of different frequencies are output and a different second permutation of the order in which the count N of different frequencies are output; a frequency multiplier circuit operably coupled to the pattern generator circuit and configured to upconvert the pulse sequence to an upconverted pulse sequence having a higher second range of frequencies beyond the first range of frequencies; a sample cell in electromagnetic communication with the frequency multiplier circuit and configured to receive the upconverted pulse sequence as an excitation to a sample; and an analog-to-digital converter configured to acquire a digital representation of an output from the sample cell elicited in response to the upconverted pulse sequence. a pattern generator circuit configured to output a pulse sequence, the pulse sequence including durations during which frequencies selected from a first frequency range are output, including a count N of different frequencies output serially within the pulse sequence, the pulse sequence further comprising a count M of unique permutations of an order in which the count N of different frequencies are output, the count N being at least three and the count M of unique permutations containing a first permutation of the order in which the count N of different frequencies are output and a different second permutation of the order in which the count N of different frequencies are output; a frequency multiplier circuit operably coupled to the pattern generator circuit and configured to upconvert the pulse sequence to an upconverted pulse sequence having a higher second range of frequencies beyond the first range of frequencies; a sample cell in electromagnetic communication with the frequency multiplier circuit and configured to receive the upconverted pulse sequence as an excitation to a sample; and an analog-to-digital converter configured to acquire a digital representation of an output from the sample cell elicited in response to the upconverted pulse sequence.
Changing mat having - an upper side , - a lower side , - a first lateral delimitation and a second lateral delimitation which are mutually opposite, as well as - a front end and a rear end which are aligned transversely to the first and second lateral delimitations , - wherein the front end has a tapering in relation to the rear end , characterised in that - in the changing mattress is arranged at least one first air chamber , wherein the changing mattress is made rigid when the first air chamber is filled with air (L). - an upper side , - a lower side , - a first lateral delimitation and a second lateral delimitation which are mutually opposite, as well as - a front end and a rear end which are aligned transversely to the first and second lateral delimitations , - wherein the front end has a tapering in relation to the rear end , characterised in that - in the changing mattress is arranged at least one first air chamber , wherein the changing mattress is made rigid when the first air chamber is filled with air (L).
Measuring device for analysing a luminescent sample and, in particular, for measuring the concentration of at least one analyte in a luminescent sample , comprising: a housing with a sample receptacle space for accommodating a sample container , a sample container for accommodating the luminescent sample , at least one illumination apparatus for illuminating the luminescent sample in order to excite the sample to exhibit afterglow, a radiation receiver apparatus for receiving radiation emitted by the luminescent sample , and an evaluation apparatus for evaluating the radiation from the luminescent sample received by the radiation receiver apparatus , wherein a solid, pasty, powdery and/or gaseous luminescent sample can be measured by the measuring device as a luminescent sample , wherein the measuring device has a control apparatus , wherein the measuring device is embodied as a portable measuring device with at least one dedicated energy source, characterised in that the measuring device has a camera , by means of which measurement conditions, a measurement location and a site of a sampling can be filmed or photographed, and a camera data recording apparatus for storing the camera data from the camera , wherein the control apparatus actuates and/or regulates the illumination apparatus , the radiation receiver apparatus, the camera and the camera data recording apparatus, and wherein the measuring device has a connector for a wireless and/or wired connection of an external apparatus, for coupling to the external apparatus to transmit the camera data and measurement data to the external apparatus. a housing with a sample receptacle space for accommodating a sample container , a sample container for accommodating the luminescent sample , at least one illumination apparatus for illuminating the luminescent sample in order to excite the sample to exhibit afterglow, a radiation receiver apparatus for receiving radiation emitted by the luminescent sample , and an evaluation apparatus for evaluating the radiation from the luminescent sample received by the radiation receiver apparatus , wherein a solid, pasty, powdery and/or gaseous luminescent sample can be measured by the measuring device as a luminescent sample , wherein the measuring device has a control apparatus , wherein the measuring device is embodied as a portable measuring device with at least one dedicated energy source, characterised in that the measuring device has a camera , by means of which measurement conditions, a measurement location and a site of a sampling can be filmed or photographed, and a camera data recording apparatus for storing the camera data from the camera , wherein the control apparatus actuates and/or regulates the illumination apparatus , the radiation receiver apparatus, the camera and the camera data recording apparatus, and wherein the measuring device has a connector for a wireless and/or wired connection of an external apparatus, for coupling to the external apparatus to transmit the camera data and measurement data to the external apparatus.
A novel Muramyl Dipeptide derivative compound -VIII wherein R 1 and R 2 both are hydrogen; or R 1 is hydrogen and R 2 is alkyl or aryl; or R 1 is alkyl or aryl and R 2 is hydrogen; or R 1 and R 2 both are alkyl or aryl (same or different groups); wherein alkyl group constitute C1-C6 alkyl or higher (both linear and branched) with or without heteroatoms; and aryl group constitute phenyl, substituted phenyl, heteraryl, arylalkyl and polynuclear aromatics.
A container for containing a fluid substance, the container comprising a surface that comes into contact with said fluid substance and having, formed on said surface, a liquid film for improving sliding property to said fluid substance, the liquid film containing solid particles of particle size of not more than 300 μ m that are dispersed, and capable of rolling, therein.
A method comprising: starting, by a computing device, a synchronous communication session in response to user initiation, where the synchronous communication session includes real-time multimedia data transfer among a plurality of users associated with the synchronous communication session; associating, by the computing device, an asynchronous communication session with the synchronous communication session by associating identifiers of the asynchronous communication session and the synchronous communication session with each other; providing, by the computing device, the plurality of users with automatic access to the associated asynchronous communication session, the asynchronous communication session overlapping in time with the synchronous communication session and the automatic access including access to add information to the asynchronous communication session or retrieve information from the asynchronous communication session while the synchronous communication session is ongoing; ending, by the computing device, the synchronous communication session; sending, by the computing device, a digital link over a network to the plurality of users associated with the synchronous communication session, the digital link providing access to the asynchronous communication session; and granting, by the computing device, access to ones of the users for the asynchronous communication session in response to selection of the digital link. starting, by a computing device, a synchronous communication session in response to user initiation, where the synchronous communication session includes real-time multimedia data transfer among a plurality of users associated with the synchronous communication session; associating, by the computing device, an asynchronous communication session with the synchronous communication session by associating identifiers of the asynchronous communication session and the synchronous communication session with each other; providing, by the computing device, the plurality of users with automatic access to the associated asynchronous communication session, the asynchronous communication session overlapping in time with the synchronous communication session and the automatic access including access to add information to the asynchronous communication session or retrieve information from the asynchronous communication session while the synchronous communication session is ongoing; ending, by the computing device, the synchronous communication session; sending, by the computing device, a digital link over a network to the plurality of users associated with the synchronous communication session, the digital link providing access to the asynchronous communication session; and granting, by the computing device, access to ones of the users for the asynchronous communication session in response to selection of the digital link.
A synergistic extract of the alga Palmaria palmata and of flower heads of a plant of the genus Jasminum, said extract being obtainable by a method comprising i) a step of preparing an aqueous extract of the alga Palmaria palmata followed by ii) a step of maceration of the flower heads of a plant of the genus Jasminum in said aqueous extract, the weight ratio of the dry weight of the alga to the dry weight of the flower heads, both used as raw material for preparing the synergistic extract, being between 40/60 and 95/5.
A driving tool comprising: a housing ; a nosepiece connected to an end of the housing and having a cylindric body; a driver operatively translatable along a drive axis to engage and drive a fastener through the nosepiece and into a workpiece; a contact trip received in the cylindric body of the nosepiece and slidable between a retracted position and an extended position relative to the end of the nosepiece, the contact trip having an elongated body defining an aperture aligned with the drive axis and through which the fastener is driven by the driver into the workpiece; at least one pocket disposed within an outer wall of the contact trip; and at least one magnet disposed in each of the at least one pocket. a housing ; a nosepiece connected to an end of the housing and having a cylindric body; a driver operatively translatable along a drive axis to engage and drive a fastener through the nosepiece and into a workpiece; a contact trip received in the cylindric body of the nosepiece and slidable between a retracted position and an extended position relative to the end of the nosepiece, the contact trip having an elongated body defining an aperture aligned with the drive axis and through which the fastener is driven by the driver into the workpiece; at least one pocket disposed within an outer wall of the contact trip; and at least one magnet disposed in each of the at least one pocket.
A suction nozzle used in a mounting device for mounting a component (P) on a board (S), comprising: an air pipe ; and a suction pad portion which has a flow path communicating with the air pipe , has a cavity portion between the suction pad portion and the component (P), abuts on the component (P), and is formed to be larger than the air pipe at a tip of the air pipe , wherein a resistance cavity which causes resistance and decreases air flow speed when a positive pressure is applied is formed between the flow path and the cavity portion , wherein the resistance cavity includes a first cavity having a slit shape which has a width smaller than a size of the flow path and a length longer than a size of the flow path , and a second cavity formed on a side of the cavity portion , the second cavity having a slit shape which has a sectional area larger than that of the first cavity , and the first cavity has a sectional area greater than a sectional area of the flow path . an air pipe ; and a suction pad portion which has a flow path communicating with the air pipe , has a cavity portion between the suction pad portion and the component (P), abuts on the component (P), and is formed to be larger than the air pipe at a tip of the air pipe , wherein a resistance cavity which causes resistance and decreases air flow speed when a positive pressure is applied is formed between the flow path and the cavity portion , wherein the resistance cavity includes a first cavity having a slit shape which has a width smaller than a size of the flow path and a length longer than a size of the flow path , and a second cavity formed on a side of the cavity portion , the second cavity having a slit shape which has a sectional area larger than that of the first cavity , and the first cavity has a sectional area greater than a sectional area of the flow path .
Method for operating a transmission device for a motor vehicle, wherein a driving gear is selected from a set of driving gears and set on a transmission and, on exceeding an upper speed limit, a gear with a larger gear ratio is selected from the set of driving gears and set on the transmission, wherein in a normal operating mode, the set of driving gears corresponds to a normal operation set of driving gears , which comprises a plurality of different driving gears, and the upper speed limit corresponds to a normal operation upper speed limit, and in an alternative operating mode, the set of driving gears corresponds to and alternative operation set of driving gears , which has a smaller number of different driving gears than the normal operation set of driving gears, and the upper speed limit corresponds to an alternative operation upper speed limit that is different from the normal operation upper speed limit, characterised in that a smallest driving gear of the alternative operation set of driving gears is larger than the smallest driving gear of the normal operation set of driving gears , and that the alternative operation upper speed limit is higher than the normal operation upper speed limit.
An electromagnetic flow sensor for an electromagnetic flow meter , the sensor comprising: a body or frame; a passage through the body or frame; at least part of a magnetic circuit supported by the body or frame for directing a magnetic field across the passage; and at least first and second electrodes supported by the body or frame, the at least first and second electrodes arranged to sense a voltage in response to a conductive fluid flowing through the passage; wherein the at least part of the magnetic circuit comprises: a central pole piece (172; 292); and outer pole piece(s) (173; 295) extending around the central pole piece and the passage so as to serve as a magnetic screen from an external magnetic field characterised in that the passage has a central protrusion extending into and along the passage so as to present a 'U'-shaped profile to the flow of the conductive fluid, wherein the central protrusion is electrically insulated and includes the central pole piece. a body or frame; a passage through the body or frame; at least part of a magnetic circuit supported by the body or frame for directing a magnetic field across the passage; and at least first and second electrodes supported by the body or frame, the at least first and second electrodes arranged to sense a voltage in response to a conductive fluid flowing through the passage; wherein the at least part of the magnetic circuit comprises: a central pole piece (172; 292); and outer pole piece(s) (173; 295) extending around the central pole piece and the passage so as to serve as a magnetic screen from an external magnetic field characterised in that the passage has a central protrusion extending into and along the passage so as to present a 'U'-shaped profile to the flow of the conductive fluid, wherein the central protrusion is electrically insulated and includes the central pole piece. a central pole piece (172; 292); and outer pole piece(s) (173; 295) extending around the central pole piece and the passage so as to serve as a magnetic screen from an external magnetic field characterised in that the passage has a central protrusion extending into and along the passage so as to present a 'U'-shaped profile to the flow of the conductive fluid, wherein the central protrusion is electrically insulated and includes the central pole piece.