mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for controlling air mist flushing of a rock drilling unit wherein the air mist comprises pressurized air (PA) and at least one liquid component (LC) ; and wherein the apparatus comprises at least one control unit (CU) for controlling the feeding of the air mist; the control unit (CU) is provided with data on penetration rate of drilling; the control unit (CU) is configured to generate control signals (CS) for controlling feeding of the at least one liquid component (LC) of the air mist in response to the input data on penetration rate and parameters input to the control unit (CU); and the control unit is configured toreceive input target value for moisture content of drilling cuttings removed from the drill hole being drilled; characterized in that the control unit is further configured to determine real value of moisture content of the drilling cuttings ; and adjust feeding of the liquid component (LC) in response to comparison of the input target value and the real value; wherein the control unit (CU) is provided with sensing data on the real moisture of the drilling cuttings removed from the drilled hole , whereby the control unit (CU) is provided with feedback control and is configured to control the feeding of the liquid component (LC) in response to the input feedback data. and wherein the apparatus comprises at least one control unit (CU) for controlling the feeding of the air mist; the control unit (CU) is provided with data on penetration rate of drilling; the control unit (CU) is configured to generate control signals (CS) for controlling feeding of the at least one liquid component (LC) of the air mist in response to the input data on penetration rate and parameters input to the control unit (CU); and the control unit is configured toreceive input target value for moisture content of drilling cuttings removed from the drill hole being drilled; characterized in that the control unit is further configured to determine real value of moisture content of the drilling cuttings ; and adjust feeding of the liquid component (LC) in response to comparison of the input target value and the real value; wherein the control unit (CU) is provided with sensing data on the real moisture of the drilling cuttings removed from the drilled hole , whereby the control unit (CU) is provided with feedback control and is configured to control the feeding of the liquid component (LC) in response to the input feedback data.
A radial foil bearing comprising: a bearing housing which has an insertion hole through which a shaft is inserted; a back foil which is disposed on an inner peripheral surface of the insertion hole ; and an engagement member which includes a first part and a second part , the first part being disposed to overlap the back foil in a radial direction of the insertion hole and engaged with the back foil , and the second part being attached to the bearing housing , wherein the first part has an engagement groove which extends to an end edge of the first part in an axial direction of the insertion hole , the back foil is disposed in the engagement groove , and the back foil has crest portions and trough portions which are alternately formed in a circumferential direction of the inner peripheral surface of the insertion hole , characterized in that the first part has a first claw portion and a second claw portion provided on opposing sides of the engagement groove with respect to each other, the first claw portion being disposed inside the trough portion in the radial direction, and the second claw portion being disposed outside the crest portion in the radial direction. a bearing housing which has an insertion hole through which a shaft is inserted; a back foil which is disposed on an inner peripheral surface of the insertion hole ; and an engagement member which includes a first part and a second part , the first part being disposed to overlap the back foil in a radial direction of the insertion hole and engaged with the back foil , and the second part being attached to the bearing housing , wherein the first part has an engagement groove which extends to an end edge of the first part in an axial direction of the insertion hole , the back foil is disposed in the engagement groove , and the back foil has crest portions and trough portions which are alternately formed in a circumferential direction of the inner peripheral surface of the insertion hole , characterized in that the first part has a first claw portion and a second claw portion provided on opposing sides of the engagement groove with respect to each other, the first claw portion being disposed inside the trough portion in the radial direction, and the second claw portion being disposed outside the crest portion in the radial direction.
A method, implemented in a wireless transmit/receive unit, WTRU, for utilizing multiple carriers, the method comprising: monitoring, by the WTRU with a receiver capable of receiving on one downlink carrier at a time, a Physical Downlink Control Channel, PDCCH, on a first downlink carrier for downlink control information, DCI; receiving the DCI via the PDCCH, the DCI indicating data on a Physical Downlink Shared Channel, PDSCH, of a second downlink carrier and an indication associated with the second downlink carrier; receiving a guard interval configured by the network; switching from the first downlink carrier to the second downlink carrier; receiving the data via the PDSCH of the second downlink carrier after the end of the configured guard interval received from the network; switching from the second downlink carrier to the first downlink carrier; and monitoring the PDCCH on the first downlink carrier. monitoring, by the WTRU with a receiver capable of receiving on one downlink carrier at a time, a Physical Downlink Control Channel, PDCCH, on a first downlink carrier for downlink control information, DCI; receiving the DCI via the PDCCH, the DCI indicating data on a Physical Downlink Shared Channel, PDSCH, of a second downlink carrier and an indication associated with the second downlink carrier; receiving a guard interval configured by the network; switching from the first downlink carrier to the second downlink carrier; receiving the data via the PDSCH of the second downlink carrier after the end of the configured guard interval received from the network; switching from the second downlink carrier to the first downlink carrier; and monitoring the PDCCH on the first downlink carrier.
A valve device for draining fluids from and/or infusing fluids into a patient's body, comprising: a housing comprising first, second, and third connectors (205; 204; 203), and a primary fluid path communicating between the first and second connectors (205; 204) and a secondary fluid path communicating from the primary fluid path to the third connector , wherein the third connector is configured to prevent fluid flow therethrough unless a mating connector is fully coupled thereto; a first valve member movable within the housing between a first position in which the first valve member does not obstruct the primary fluid path and a second position in which the primary fluid path is closed to prevent fluid flow through the first connector ; and a second valve member movable within the housing between a first position in which the second valve member does not obstruct the primary fluid path and a second position in which the primary fluid path is closed to prevent fluid flow through the second connector , wherein the secondary fluid path is disposed between the first valve member and the second valve member . a housing comprising first, second, and third connectors (205; 204; 203), and a primary fluid path communicating between the first and second connectors (205; 204) and a secondary fluid path communicating from the primary fluid path to the third connector , wherein the third connector is configured to prevent fluid flow therethrough unless a mating connector is fully coupled thereto; a first valve member movable within the housing between a first position in which the first valve member does not obstruct the primary fluid path and a second position in which the primary fluid path is closed to prevent fluid flow through the first connector ; and a second valve member movable within the housing between a first position in which the second valve member does not obstruct the primary fluid path and a second position in which the primary fluid path is closed to prevent fluid flow through the second connector , wherein the secondary fluid path is disposed between the first valve member and the second valve member .
A system for containing and transporting a medical device , the system comprising: a container (100; 200a-200e) including a bottom face and surrounding side faces (110a-110d) as a closed first end and an open second end to form an inner portion for receiving and retaining the medical device , at least a portion of one or more of the side faces having an indentation (130; 230a-230e) extending along a length of the respective side face ; and a liner removably enclosable about the container (100; 200a-200e), the liner being extendable over the side faces (100a-110d) to line the inner portion of the container (100; 200a-200e) to an outer surface of the bottom face of the container (100; 200a-200e), such that the liner is conformable to a profile of the container (100; 200a-200e); wherein the indentation (130; 230a-230e) is formed into the inner portion of the container (100; 200a-200e) such that the container (100; 200a-200e) is compatibly receivable in a first transportation device in a first orientation; and wherein the bottom face of the container (100; 200a-200e) includes a contour , such that the container (100; 200a-200e) is compatibly receivable in the first transportation device in a second orientation different from the first orientation. a container (100; 200a-200e) including a bottom face and surrounding side faces (110a-110d) as a closed first end and an open second end to form an inner portion for receiving and retaining the medical device , at least a portion of one or more of the side faces having an indentation (130; 230a-230e) extending along a length of the respective side face ; and a liner removably enclosable about the container (100; 200a-200e), the liner being extendable over the side faces (100a-110d) to line the inner portion of the container (100; 200a-200e) to an outer surface of the bottom face of the container (100; 200a-200e), such that the liner is conformable to a profile of the container (100; 200a-200e); wherein the indentation (130; 230a-230e) is formed into the inner portion of the container (100; 200a-200e) such that the container (100; 200a-200e) is compatibly receivable in a first transportation device in a first orientation; and wherein the bottom face of the container (100; 200a-200e) includes a contour , such that the container (100; 200a-200e) is compatibly receivable in the first transportation device in a second orientation different from the first orientation.
An anchor comprising: • a substantially non-conducting housing including a series of collet apertures; • flexible elastic strands ; • collets ; and • a water bed engaging part ; wherein • the diameter of the strands , when non-elongated, is wider than the smallest internal diameter of the collets ; • each collet engages one of the flexible strands and secures it in a respective one of the collet apertures • for each collet a portion of a corresponding one of the strands within the collet exerts a force on the inside of the collet to expand the collet against the housing to prevent the strand from slipping out of the collet ; • wherein, in use, the water bed engaging part is located on the bed of a body of water such that the strands extend upwards and secure an item at or near the surface of the water; and • the strands are such elastic that they expand and contract lengthwise to resist breaking due to pulling of the item. • a substantially non-conducting housing including a series of collet apertures; • flexible elastic strands ; • collets ; and • a water bed engaging part ; • the diameter of the strands , when non-elongated, is wider than the smallest internal diameter of the collets ; • each collet engages one of the flexible strands and secures it in a respective one of the collet apertures • for each collet a portion of a corresponding one of the strands within the collet exerts a force on the inside of the collet to expand the collet against the housing to prevent the strand from slipping out of the collet ; • wherein, in use, the water bed engaging part is located on the bed of a body of water such that the strands extend upwards and secure an item at or near the surface of the water; and • the strands are such elastic that they expand and contract lengthwise to resist breaking due to pulling of the item.
A titanium dioxide pigment , comprising: a plurality of alumina treated titanium dioxide particles , said particles having anchoring moieties associated therewith for facilitating anchoring of a polymer to said particles, wherein said anchoring moieties are selected from the group consisting of hydroxyl moieties, phosphate moieties and mixtures thereof; and a polymer deposited on said titanium dioxide particles for inhibiting agglomeration of said titanium dioxide particles in an aqueous based coating formulation , wherein said coating formulation includes an aqueous based solvent and a resin, wherein the resin is selected from the group consisting of an acrylic resin, a vinyl acrylic resin or a styrene acrylic resin, and wherein said polymer is a copolymer having hydrophilic anchoring groups for interacting with said anchoring moieties associated with said titanium dioxide particles , and hydrophobic end groups for interacting with particles of said resin of said coating formulation to form a network between said titanium dioxide particles and said resin particles in said coating formulation , and wherein the anchoring groups are carbonyl, hydroxyl, alkoxy or amine groups; and wherein said polymer includes a polyether based repeating unit and a polyester based repeating unit, said polyether based repeating unit and said polyester based repeating unit being linked together. a plurality of alumina treated titanium dioxide particles , said particles having anchoring moieties associated therewith for facilitating anchoring of a polymer to said particles, wherein said anchoring moieties are selected from the group consisting of hydroxyl moieties, phosphate moieties and mixtures thereof; and a polymer deposited on said titanium dioxide particles for inhibiting agglomeration of said titanium dioxide particles in an aqueous based coating formulation , wherein said coating formulation includes an aqueous based solvent and a resin, wherein the resin is selected from the group consisting of an acrylic resin, a vinyl acrylic resin or a styrene acrylic resin, and wherein said polymer is a copolymer having hydrophilic anchoring groups for interacting with said anchoring moieties associated with said titanium dioxide particles , and hydrophobic end groups for interacting with particles of said resin of said coating formulation to form a network between said titanium dioxide particles and said resin particles in said coating formulation , and wherein the anchoring groups are carbonyl, hydroxyl, alkoxy or amine groups; and wherein said polymer includes a polyether based repeating unit and a polyester based repeating unit, said polyether based repeating unit and said polyester based repeating unit being linked together.
A chemical-mechanical polishing composition consisting essentially of: (a) 0.5 wt.% to 20 wt.% of silica, (b) 0.02 wt.% to 5 wt.% of one or more organic carboxylic acids, (c) 0.05 wt.% to 2 wt.% of one or more aminophosphonic acids, (d) 0.1 wt.% to 5 wt.% of one or more tetraalkylammonium salts selected from the group consisting of tetraalkylammonium hydroxide, tetraalkylammonium chloride, tetraalkylammonium bromide, tetraalkylammonium sulfate, and tetraalkylammonium hydrogensulfate, (e) potassium bicarbonate, (f) optionally potassium hydroxide, and (g) water, wherein the polishing composition has a pH of 7 to 11. (a) 0.5 wt.% to 20 wt.% of silica, (b) 0.02 wt.% to 5 wt.% of one or more organic carboxylic acids, (c) 0.05 wt.% to 2 wt.% of one or more aminophosphonic acids, (d) 0.1 wt.% to 5 wt.% of one or more tetraalkylammonium salts selected from the group consisting of tetraalkylammonium hydroxide, tetraalkylammonium chloride, tetraalkylammonium bromide, tetraalkylammonium sulfate, and tetraalkylammonium hydrogensulfate, (e) potassium bicarbonate, (f) optionally potassium hydroxide, and (g) water,
A method of carburizing a steel component having a composition of Fe-16.3Co-7.5Ni-3.5Cr-1.75Mo-0.2W-0.11C-0.03Ti-0.02V, the method comprising: generating a low pressure vacuum in a carburization furnace having the steel component therein, the low pressure vacuum being a sub-atmospheric pressure; heating the steel component in the carburization furnace to a carburization temperature in a range of 1000°C (1830°F) plus or minus 56°C (100°F) while in the low pressure vacuum; performing a boost cycle for one minute or less, to introduce carbon rich gas into the carburization furnace while the steel component is at the carburization temperature and in the low pressure vacuum; and after performing the boost cycle, performing a diffuse cycle for a minute or greater, by ceasing introduction of the carbon rich gas into the carburization furnace to allow for diffusion of the carbon into the steel component to occur and while the steel component is at the carburization temperature and in the low pressure vacuum, characterized in that the boost cycle and the diffuse cycle are repeated to achieve a carbon content at a surface of the steel component of between 0.40 wt. % and 0.55 wt. %. generating a low pressure vacuum in a carburization furnace having the steel component therein, the low pressure vacuum being a sub-atmospheric pressure; heating the steel component in the carburization furnace to a carburization temperature in a range of 1000°C (1830°F) plus or minus 56°C (100°F) while in the low pressure vacuum; performing a boost cycle for one minute or less, to introduce carbon rich gas into the carburization furnace while the steel component is at the carburization temperature and in the low pressure vacuum; and after performing the boost cycle, performing a diffuse cycle for a minute or greater, by ceasing introduction of the carbon rich gas into the carburization furnace to allow for diffusion of the carbon into the steel component to occur and while the steel component is at the carburization temperature and in the low pressure vacuum, characterized in that the boost cycle and the diffuse cycle are repeated to achieve a carbon content at a surface of the steel component of between 0.40 wt. % and 0.55 wt. %.
Arrangement for an opening leaf of a vehicle, in particular of a motor vehicle , in particular an opening leaf of the side door type, the arrangement comprising: - a lock controlling the opening of such an opening leaf, - a lever for actuating the lock , pivoting in a first direction (S1) towards a rest position (PR) of the actuating lever in which the lock blocks such an opening leaf, and in a second direction (S2) towards an opening position (PO) of the actuating lever in which the lock frees such an opening leaf to open, - a control for opening such an opening leaf, comprising a fixed part , in particular an external opening control, - a means for transmitting movement between the actuating lever and the lock , in particular a means for transmitting movement of the cable type, - an external panel of such an opening leaf , - a means for blocking the pivoting of the actuating lever in the second direction (S2) such that in the event of an impact (F) on the external panel , the actuating lever is held towards or at the rest position (PR), such that the blocking means comprises a first part and a second part , the first part being intended to slide relative to the second part upon such an impact (F), in particular the first part being intended to slide within the second part , the second part of the blocking means being integrated into the fixed part of the opening control , in particular the second part being integral with the fixed part of the opening control , characterized in that the first part and the second part of the blocking means are formed integrally and form a single piece, and in that the first part and the second part are fastened relative to each other by a second fastening means intended to break upon such an impact (F). - a lock controlling the opening of such an opening leaf, - a lever for actuating the lock , pivoting in a first direction (S1) towards a rest position (PR) of the actuating lever in which the lock blocks such an opening leaf, and in a second direction (S2) towards an opening position (PO) of the actuating lever in which the lock frees such an opening leaf to open, - a control for opening such an opening leaf, comprising a fixed part , in particular an external opening control, - a means for transmitting movement between the actuating lever and the lock , in particular a means for transmitting movement of the cable type, - an external panel of such an opening leaf , - a means for blocking the pivoting of the actuating lever in the second direction (S2) such that in the event of an impact (F) on the external panel , the actuating lever is held towards or at the rest position (PR),
A fusion protein comprising: (a) an antigen-presenting cell (APC)-binding domain located at the N-terminus of the fusion protein, wherein the APC-binding domain is Pseudomonas exotoxin A (PE) binding domain Ia; (b) a translocation peptide having 34-112 amino acid residues in length, comprising the amino acid sequence of SEQ ID NO: 4, 2, 3, or 6, located at the C-terminus of the APC-binding domain; (c) a fusion antigen comprising: (i) a porcine reproductive and respiratory syndrome virus (PRRSV) ORF 7 antigen; (ii) a PRRSV ORF1b antigen; (iii) a PRRSV ORF6 antigen; and (iv) a PRRSV ORF5 antigen; (d) a nuclear export signal comprising the amino acid sequence of SEQ ID NO: 13, located at the C-terminus of the fusion antigen or between the translocation peptide and the fusion antigen; and (e) an endoplasmic reticulum retention sequence, located at the C-terminus of the fusion antigen when the nuclear export signal is located at between the translocation peptide and the fusion antigen, or located at the C-terminus of the nuclear export signal when the nuclear export signal is located at the C-terminus of the fusion antigen; wherein the fusion antigen does not comprise full-length ORF 7 , ORF6, ORF5, and ORF1b protein sequences. (a) an antigen-presenting cell (APC)-binding domain located at the N-terminus of the fusion protein, wherein the APC-binding domain is Pseudomonas exotoxin A (PE) binding domain Ia; (b) a translocation peptide having 34-112 amino acid residues in length, comprising the amino acid sequence of SEQ ID NO: 4, 2, 3, or 6, located at the C-terminus of the APC-binding domain; (c) a fusion antigen comprising: (i) a porcine reproductive and respiratory syndrome virus (PRRSV) ORF 7 antigen; (ii) a PRRSV ORF1b antigen; (iii) a PRRSV ORF6 antigen; and (iv) a PRRSV ORF5 antigen; (i) a porcine reproductive and respiratory syndrome virus (PRRSV) ORF 7 antigen; (ii) a PRRSV ORF1b antigen; (iii) a PRRSV ORF6 antigen; and (iv) a PRRSV ORF5 antigen; (d) a nuclear export signal comprising the amino acid sequence of SEQ ID NO: 13, located at the C-terminus of the fusion antigen or between the translocation peptide and the fusion antigen; and (e) an endoplasmic reticulum retention sequence, located at the C-terminus of the fusion antigen when the nuclear export signal is located at between the translocation peptide and the fusion antigen, or located at the C-terminus of the nuclear export signal when the nuclear export signal is located at the C-terminus of the fusion antigen;