mhurhangee/ep-ind-claims huggingface dataset:
A system for performing diagnostic or therapeutic transcranial ultrasound procedures, the system comprising: a support frame configured to be placed around the head of a patient; a plurality of transcranial ultrasound transducer array elements supported by said support frame, wherein said plurality of transcranial ultrasound transducer array elements are supported in pre-selected positions and orientations relative to said support frame for transmitting ultrasound through a skull of the patient, such that far field regions respectively associated with said plurality of transcranial ultrasound transducer array elements spatially overlap within a far field overlap region located within a brain of the patient when said support frame is placed around the head of the patient; control and processing hardware operably connected to said plurality of transcranial ultrasound transducer array elements, wherein said control and processing hardware is configured to: control said plurality of transcranial ultrasound transducer array elements to generate an ultrasound pulse from each transcranial ultrasound transducer array elements, and control the timing of the ultrasound pulses, based on registration data spatially registering the pre-selected positions and orientations of said plurality of transcranial ultrasound transducer array elements with volumetric image data associated with the patient, such that ultrasound energy is focused at a pre-selected region within the far field overlap region. a support frame configured to be placed around the head of a patient; a plurality of transcranial ultrasound transducer array elements supported by said support frame, wherein said plurality of transcranial ultrasound transducer array elements are supported in pre-selected positions and orientations relative to said support frame for transmitting ultrasound through a skull of the patient, such that far field regions respectively associated with said plurality of transcranial ultrasound transducer array elements spatially overlap within a far field overlap region located within a brain of the patient when said support frame is placed around the head of the patient; control and processing hardware operably connected to said plurality of transcranial ultrasound transducer array elements, wherein said control and processing hardware is configured to: control said plurality of transcranial ultrasound transducer array elements to generate an ultrasound pulse from each transcranial ultrasound transducer array elements, and control the timing of the ultrasound pulses, based on registration data spatially registering the pre-selected positions and orientations of said plurality of transcranial ultrasound transducer array elements with volumetric image data associated with the patient, such that ultrasound energy is focused at a pre-selected region within the far field overlap region.
A surgical suture fixation system comprising: a delivery guide comprising a conduit having a distal end and a proximal end, the conduit having an opening in the distal end; an anchor deployment component insertable axially into the proximal end of the conduit of the delivery guide and defining a distal end including a cannula having a pointed distal end adapted for insertion through tissue, an opening formed in the cannula, and a slot formed through a wall of the cannula at a distal end portion of the cannula; an anchor including a body, wherein the anchor further includes a suture and a fixation device, the suture is coupled to the anchor and connected to the fixation device, and the cannula is sized to receive the body of the anchor; and a spring mechanism provided between the delivery guide and the anchor deployment component; characterized in that the delivery tube comprises a channel formed in a sidewall of the conduit, wherein the channel communicates with the opening of the conduit and extends at least partway between the distal end and the proximal end of the conduit; the anchor includes a spine projecting radially away from the body and having a width and a height configured to allow the spine to engage with the tissue, the anchor further includes an eyelet attached to a trailing end of the body, wherein said body includes a pointed leading end that is configured to pierce the tissue, and the anchor is configure to be attached to the anchor deployment component; the slot is sized to receive the width of the spine; the fixation device is slideably coupled to the suture; and wherein, when the anchor is placed in the conduit of the delivery guide, the suture extends through the channel and the fixation device is external to the delivery guide. a delivery guide comprising a conduit having a distal end and a proximal end, the conduit having an opening in the distal end; an anchor deployment component insertable axially into the proximal end of the conduit of the delivery guide and defining a distal end including a cannula having a pointed distal end adapted for insertion through tissue, an opening formed in the cannula, and a slot formed through a wall of the cannula at a distal end portion of the cannula; an anchor including a body, wherein the anchor further includes a suture and a fixation device, the suture is coupled to the anchor and connected to the fixation device, and the cannula is sized to receive the body of the anchor; and a spring mechanism provided between the delivery guide and the anchor deployment component;
A communication apparatus comprising: an acquiring unit that acquires a predetermined character string input by a user; a transmitting unit that is adapted to transmit a search signal including a search identifier based on the character string acquired by the acquiring unit, the search signal being used to search for a providing apparatus that provides a communication parameter necessary to provide wireless LAN communication; a receiving unit adapted to receive a response to the search signal; and a starting unit adapted to start, on the basis of the response received by the receiving unit, communication parameter sharing processing with a providing apparatus that has transmitted the response, characterized in that, in the communication parameter sharing processing, a communication parameter is shared on the basis of a public key encryption method using a public key and a private key generated by the communication apparatus and a public key and a private key generated by the providing apparatus, wherein the public key generated by the communication apparatus and the public key generated by the providing apparatus are each encrypted by an encryption key generated from the predetermined character string. an acquiring unit that acquires a predetermined character string input by a user; a transmitting unit that is adapted to transmit a search signal including a search identifier based on the character string acquired by the acquiring unit, the search signal being used to search for a providing apparatus that provides a communication parameter necessary to provide wireless LAN communication; a receiving unit adapted to receive a response to the search signal; and a starting unit adapted to start, on the basis of the response received by the receiving unit, communication parameter sharing processing with a providing apparatus that has transmitted the response, characterized in that, in the communication parameter sharing processing, a communication parameter is shared on the basis of a public key encryption method using a public key and a private key generated by the communication apparatus and a public key and a private key generated by the providing apparatus, wherein the public key generated by the communication apparatus and the public key generated by the providing apparatus are each encrypted by an encryption key generated from the predetermined character string.
A segmented sideplate to be positioned around an axis of rotation (A-A) of a gas turbine engine, the segmented sideplate comprising: a first plate (100; 600) having a first circumferential edge configured to interface with a complementary circumferential edge; and a second plate (102; 602) having a second circumferential edge configured to interface with the first circumferential edge; wherein the first plate (100; 600) includes a first anti-rotation feature (204, 206; 616) and the second plate (102; 602) includes a second anti-rotation feature (304, 306; 618); and characterised in that, when the first plate (100; 600) and the second plate (102; 602) are in an aligned mounted position forming an intersection, the first plate (100; 600) and the second plate (102; 602) include a concavity centered around the intersection of the first plate (100; 600) and the second plate (102; 602) such that the concavity allows airflow in the axial direction. a first plate (100; 600) having a first circumferential edge configured to interface with a complementary circumferential edge; and a second plate (102; 602) having a second circumferential edge configured to interface with the first circumferential edge; wherein the first plate (100; 600) includes a first anti-rotation feature (204, 206; 616) and the second plate (102; 602) includes a second anti-rotation feature (304, 306; 618); and characterised in that, when the first plate (100; 600) and the second plate (102; 602) are in an aligned mounted position forming an intersection, the first plate (100; 600) and the second plate (102; 602) include a concavity centered around the intersection of the first plate (100; 600) and the second plate (102; 602) such that the concavity allows airflow in the axial direction.
A device (10, 12, 14) for the removal of urea from a fluid having urea to produce a cleansed fluid, the device comprising: a urea decomposition unit comprising an inlet for entry of the fluid having urea and an outlet for removal of the cleansed fluid, and one or more sets of electrodes having an anode and a cathode with an electrocatalytic surface for decomposition of the urea via electrooxidation; and an electrodialysis unit (100, 200, 300) comprising a set of electrodes having an anode (102, 202, 302) and a cathode (104, 204, 304) for separation of a salt solution via electrodialysis, where the salt solution is separated into an acid stream and a basic stream, wherein at least one of (i) the basic stream of the electrodialysis unit (100, 200, 300) is placed in fluid communication with the inlet of the urea decomposition unit, (ii) the acid stream from the electrodialysis unit is placed in fluid communication with the outlet of the urea decomposition unit, or (iii) the acid stream is circulated through the electrodialysis unit. a urea decomposition unit comprising an inlet for entry of the fluid having urea and an outlet for removal of the cleansed fluid, and one or more sets of electrodes having an anode and a cathode with an electrocatalytic surface for decomposition of the urea via electrooxidation; and an electrodialysis unit (100, 200, 300) comprising a set of electrodes having an anode (102, 202, 302) and a cathode (104, 204, 304) for separation of a salt solution via electrodialysis, where the salt solution is separated into an acid stream and a basic stream, wherein at least one of (i) the basic stream of the electrodialysis unit (100, 200, 300) is placed in fluid communication with the inlet of the urea decomposition unit, (ii) the acid stream from the electrodialysis unit is placed in fluid communication with the outlet of the urea decomposition unit, or (iii) the acid stream is circulated through the electrodialysis unit.
Method for filling insulating glass with a gas or a gas mixture that is distinct from air, wherein in at least one region of the edge of the unit of at least two glass panes (3, 4) and spacer inserted in between a free space in the form of a gap-like opening is formed and through this gap-like opening the gas exchange gas against air is carried out, wherein the free space is formed by distance means (13, 31, 33, 35) that are effective only during the gas filling process, characterized in that as distance means protrusions of a bead of adhesive are used on the spacer and/or a glass pane (3, 4).
An anchor for placement within a tissue plication hole formed within a patient's stomach comprising a head, a base, and a stem extending between the head and the base, the head having a first, natural, position in which the head has a diameter larger than a diameter of the hole in the plication, and a second, elongated, position in which the head is deformed for passage through the hole, to permit positioning of the anchor within the plication with the base and head in contact with opposite sides of the plication, the head including a loop that extends laterally when the anchor is placed within a plication hole, to allow the head to be grasped by a grasping tool when the head is in contact with one side of the plication, characterized in that the base has an asymmetric shape with a first edge having a first curvature and a second edge having a second, flatter curvature.
An apparatus for preventing a construction machine from rolling backward, the apparatus comprising: a travel lever configured to generate any one travelling signal between a forward travelling signal and a backward travelling signal; a travelling motor configured to generate any one rotation signal between a forward-direction rotation signal and a reverse-direction rotation signal; an accelerator pedal configured to generate an acceleration signal; a brake configured to apply braking to the traveling motor; and a control unit configured to control the brake, wherein the travelling signal, the rotation signal, and the acceleration signal are input into the control unit, and when it is determined that the rotation signal is mismatched to the travelling signal, the control unit controls the brake so that the brake is operated, and when travelling tractive force is secured, the control unit controls the brake so that the operation of the brake is released, characterised in that when the rotation signal is not matched with the travelling signal, the control unit outputs a message inducing stepping of a brake pedal. a travel lever configured to generate any one travelling signal between a forward travelling signal and a backward travelling signal; a travelling motor configured to generate any one rotation signal between a forward-direction rotation signal and a reverse-direction rotation signal; an accelerator pedal configured to generate an acceleration signal; a brake configured to apply braking to the traveling motor; and a control unit configured to control the brake, wherein the travelling signal, the rotation signal, and the acceleration signal are input into the control unit, and when it is determined that the rotation signal is mismatched to the travelling signal, the control unit controls the brake so that the brake is operated, and when travelling tractive force is secured, the control unit controls the brake so that the operation of the brake is released, characterised in that when the rotation signal is not matched with the travelling signal, the control unit outputs a message inducing stepping of a brake pedal.
An agrochemical composition comprising a pesticide and at least one water-soluble copolymer, where the copolymer at least comprises 30 to 99.99 wt% of at least one monomer, selected from the group consisting of (meth)acrylamide, N-methyl(meth)acrylamide, N,N'-dimethyl(meth)acrylamide or N-methylol(meth)acrylamide; 0.01 to 15 wt% of at least one macromonomer, at least comprising a macromonomer H 2 C=C(R 1)-R 2 -O-(R 3 O) a -(R 4 O) b -[(R 4 O) c (R 5 O) d]-H; and 0.1 to 69.99 wt% of at least one anionic monoethylenically unsaturated monomer, comprising at least one acidic group selected from -COOH, -SO 3 H, PO 3 H 2, and salts thereof; where the radicals and indices have the following definitions: R 1: H or methyl, R 2: a single bond or a divalent linking group -OR 35 -, where R 35 is an alkylene group having 1 to 6 carbon atoms, R 3: independently at each occurrence ethylene groups -CH 2 CH 2 -, 1,2-propylene groups -CH 2 -CH(CH 3)-, or alkylene groups R 4, with the proviso that at least 90 mol% of the radicals R 3 are ethylene groups, R 4: independently at each occurrence alkylene groups -CR 6 (R 7)-CR 8 (R 9)-, where the radicals R 6, R 7, R 8 and R 9 independently of one another are H or a linear or branched alkyl radical having 1 to 8 carbon atoms, with the proviso that not all the radicals are H and the sum of the carbon atoms in the radicals R 6, R 7, R 8 and R 9 is 2 to 8, R 5: an ethylene group -CH 2 CH 2 -, a is a number from 10 to 150, b is a number from 5 to 30, c is a number from 0 to 2, d is a number from 0 to 20, and where the quantity figures of the monomers are based in each case on the total amount of all the monomers in the copolymer. 30 to 99.99 wt% of at least one monomer, selected from the group consisting of (meth)acrylamide, N-methyl(meth)acrylamide, N,N'-dimethyl(meth)acrylamide or N-methylol(meth)acrylamide; 0.01 to 15 wt% of at least one macromonomer, at least comprising a macromonomer H 2 C=C(R 1)-R 2 -O-(R 3 O) a -(R 4 O) b -[(R 4 O) c (R 5 O) d]-H; and 0.1 to 69.99 wt% of at least one anionic monoethylenically unsaturated monomer, comprising at least one acidic group selected from -COOH, -SO 3 H, PO 3 H 2, and salts thereof; R 1: H or methyl, R 2: a single bond or a divalent linking group -OR 35 -, where R 35 is an alkylene group having 1 to 6 carbon atoms, R 3: independently at each occurrence ethylene groups -CH 2 CH 2 -, 1,2-propylene groups -CH 2 -CH(CH 3)-, or alkylene groups R 4, with the proviso that at least 90 mol% of the radicals R 3 are ethylene groups, R 4: independently at each occurrence alkylene groups -CR 6 (R 7)-CR 8 (R 9)-, where the radicals R 6, R 7, R 8 and R 9 independently of one another are H or a linear or branched alkyl radical having 1 to 8 carbon atoms, with the proviso that not all the radicals are H and the sum of the carbon atoms in the radicals R 6, R 7, R 8 and R 9 is 2 to 8, R 5: an ethylene group -CH 2 CH 2 -, a is a number from 10 to 150, b is a number from 5 to 30, c is a number from 0 to 2, d is a number from 0 to 20, and
Use of an organic salt in the molten state in a method for synthesizing an alloy, having improved antistatic properties, based on a block copolymer comprising at least one polyamide PA block, for accelerating the kinetics of said synthesis, said method comprising the following steps: - I- production of at least one polyamide PA block; - II- polycondensation of at least one soft block SB having a glass transition temperature Tg below 15°C, with said at least one polyamide PA block, so as to obtain a block copolymer; and - III- recovery of said block copolymer alloy, said organic salt being added during step II in a content ranging from 0.1% to 30% by weight relative to the total weight of alloy, in order to accelerate the kinetics of step II and of step III, the alloy obtained having a surface resistivity, measured according to the standard ASTM D257, which is decreased by at least one decade, and identical mechanical properties, compared with the same copolymer produced without addition of organic salt. - I- production of at least one polyamide PA block; - II- polycondensation of at least one soft block SB having a glass transition temperature Tg below 15°C, with said at least one polyamide PA block, so as to obtain a block copolymer; and - III- recovery of said block copolymer alloy, said organic salt being added during step II in a content ranging from 0.1% to 30% by weight relative to the total weight of alloy, in order to accelerate the kinetics of step II and of step III, the alloy obtained having a surface resistivity, measured according to the standard ASTM D257, which is decreased by at least one decade, and identical mechanical properties, compared with the same copolymer produced without addition of organic salt.
A polarizing cell (32, 60) comprising: an enclosure having a side wall defining an interior and at least a pair of openings including an entrance and an exit for flowing a gas mixture from the entrance to the exit; and at least one window transparent to laser light which is arranged so that the laser light is propagated in a direction at least partially opposite to the direction of flow of the gas mixture; characterized in that the cell (32, 60) further comprises at least one partitioning device (82, 130) carried in the interior of the enclosure for transferring heat from the gas mixture to the enclosure, wherein the partitioning device (82, 130) is a column structure having a plurality of planar walls defining a plurality of channels to allow the gas mixture to pass through, wherein each channel is suitable for being illuminated by a part of the laser light. an enclosure having a side wall defining an interior and at least a pair of openings including an entrance and an exit for flowing a gas mixture from the entrance to the exit; and at least one window transparent to laser light which is arranged so that the laser light is propagated in a direction at least partially opposite to the direction of flow of the gas mixture; characterized in that the cell (32, 60) further comprises at least one partitioning device (82, 130) carried in the interior of the enclosure for transferring heat from the gas mixture to the enclosure, wherein the partitioning device (82, 130) is a column structure having a plurality of planar walls defining a plurality of channels to allow the gas mixture to pass through, wherein each channel is suitable for being illuminated by a part of the laser light.
A pulverized coal decomposition equipment comprising: an airtight kiln body with an inlet and an outlet, wherein a flame gas pipeline heating facility is set in the kiln body and a channel for impelling and decomposing pulverized coal is formed between the flame gas pipeline heating facility and an inner wall of the kiln body; and a pulverized coal decomposition gas collecting pipe ('5) is provided on the kiln body to communicate with the channel; the kiln body is a horizontal and rotary kiln, and an impelling board is set in the inner wall of the kiln body; characterized in that the flame gas pipeline heating facility comprises a fuel supply pipe, an air supply pipe, a combustor chamber and a flame gas heat dissipation pipe, the flame gas heat dissipation pipe consists of tube mesh close-paclced pipes. an airtight kiln body with an inlet and an outlet, wherein a flame gas pipeline heating facility is set in the kiln body and a channel for impelling and decomposing pulverized coal is formed between the flame gas pipeline heating facility and an inner wall of the kiln body; and a pulverized coal decomposition gas collecting pipe ('5) is provided on the kiln body to communicate with the channel; the kiln body is a horizontal and rotary kiln, and an impelling board is set in the inner wall of the kiln body; characterized in that the flame gas pipeline heating facility comprises a fuel supply pipe, an air supply pipe, a combustor chamber and a flame gas heat dissipation pipe, the flame gas heat dissipation pipe consists of tube mesh close-paclced pipes.