mhurhangee/patent-ind-claim-en huggingface dataset:
A storage container adapted to store a microneedle array , the microneedle array including a sheet having a first surface and a second surface that oppose each other and a plurality of needles arranged on the first surface of the sheet , the storage container comprising: a first member which includes a first flat portion in which a first opening is formed, and a support portion rising from a peripheral edge of the first opening and defining a second opening with an edge portion and in which an outer peripheral portion of the microneedle array, where the needles on the sheet of the microneedle array are not arranged, may be supported by the edge portion of the support portion while allowing the needles of the microneedle array to face the first opening ; and a second member which includes a second flat portion in which a third opening is formed, a side wall portion rising from a periphery of the third opening , and a base connected to the side wall portion and facing the third opening and defines a depression with the side wall portion and the base and in which the support portion of the first member can be stored in the depression from a side of the second opening by superimposing the second member on the first member , and the microneedle array is stored between the first member and the second member , wherein the second member and the first member are deformable by applying a force in a direction of the first member to the second member in a state in which the second member is superimposed on the first member , and the needles of the microneedle array are allowed to protrude from the first member to puncture a skin (S). a first member which includes a first flat portion in which a first opening is formed, and a support portion rising from a peripheral edge of the first opening and defining a second opening with an edge portion and in which an outer peripheral portion of the microneedle array, where the needles on the sheet of the microneedle array are not arranged, may be supported by the edge portion of the support portion while allowing the needles of the microneedle array to face the first opening ; and a second member which includes a second flat portion in which a third opening is formed, a side wall portion rising from a periphery of the third opening , and a base connected to the side wall portion and facing the third opening and defines a depression with the side wall portion and the base and in which the support portion of the first member can be stored in the depression from a side of the second opening by superimposing the second member on the first member , and the microneedle array is stored between the first member and the second member , wherein the second member and the first member are deformable by applying a force in a direction of the first member to the second member in a state in which the second member is superimposed on the first member , and the needles of the microneedle array are allowed to protrude from the first member to puncture a skin (S).
A electric brake system comprising: a main device configured to provide a first hydraulic pressure to a plurality of wheel cylinders respectively installed on a plurality of wheels , based on a position of a brake pedal ; and an auxiliary device configured to provide a second hydraulic pressure to first and second wheel cylinders respectively installed on first and second wheels among the plurality of wheels based on the position of the brake pedal in a state in which the main device does not generate the first hydraulic pressure, wherein the auxiliary device is configured to receive power from a power network different from that of the main device , and characterised in that the auxiliary device is configured to control at least one of first and second parking brakes respectively installed on third and fourth wheels among the plurality of wheels . a main device configured to provide a first hydraulic pressure to a plurality of wheel cylinders respectively installed on a plurality of wheels , based on a position of a brake pedal ; and an auxiliary device configured to provide a second hydraulic pressure to first and second wheel cylinders respectively installed on first and second wheels among the plurality of wheels based on the position of the brake pedal in a state in which the main device does not generate the first hydraulic pressure, wherein the auxiliary device is configured to receive power from a power network different from that of the main device , and characterised in that the auxiliary device is configured to control at least one of first and second parking brakes respectively installed on third and fourth wheels among the plurality of wheels .
A ferry comprising an arrangement for assembling weights on underwater pipes, the arrangement comprising means for attaching a set of weights to the ferry so that the weights are under the water line , wherein said means for attaching said weights to the ferry comprises a beam to which said weights are attachable, the arrangement further comprising a winch for lifting up and/or lowering said beam with said set of weights attached thereto under the ferry , wherein the arrangement is configured for attaching the set of weights to the ferry in such a way that the center of gravity of the weights directs about the center of the ferry , wherein the arrangement is configured for transferring the beam in a horizontal configuration with the set of weights attached thereto to an assembly site with the beam and the weights remaining all the time under water, and then arranging said weights on an underwater pipe.
A lens assembly , comprising a lens tube and a lens group disposed in the lens tube , wherein an end that is of the lens tube and that faces an object side has a shoulder ; and a first lens that is in the lens group and that is close to the object side has a convex surface , and the convex surface protrudes from the shoulder , wherein the first lens comprises an effective diameter region and a non-effective diameter region , the non-effective diameter region is provided around an outer edge of the effective diameter region , and a surface that is of the effective diameter region and that faces the object side is the convex surface ; wherein a ratio of a center thickness (h3) of the effective diameter region to a thickness (h4) of the non-effective diameter region is 2.5-3.5; the lens group comprises at least the first lens , a second lens , a third lens , a fourth lens , a fifth lens and a sixth lens , the first to sixth lenses being sequentially arranged along the optical axis, the sixth lens being close to the image side, and the convex surface being located on a surface that is of the first lens and that faces the object side; the first lens , the third lens , and the fifth lens are plastic lenses whose refractive indexes are greater than 1.6, and the second lens , the fourth lens , and the sixth lens are plastic lenses whose refractive indexes are less than 1.55; and the first lens has a positive focal power, the third lens has a negative focal power, and the fifth lens has a positive focal power. a first lens that is in the lens group and that is close to the object side has a convex surface , and the convex surface protrudes from the shoulder , wherein the first lens comprises an effective diameter region and a non-effective diameter region , the non-effective diameter region is provided around an outer edge of the effective diameter region , and a surface that is of the effective diameter region and that faces the object side is the convex surface ; wherein a ratio of a center thickness (h3) of the effective diameter region to a thickness (h4) of the non-effective diameter region is 2.5-3.5; the lens group comprises at least the first lens , a second lens , a third lens , a fourth lens , a fifth lens and a sixth lens , the first to sixth lenses being sequentially arranged along the optical axis, the sixth lens being close to the image side, and the convex surface being located on a surface that is of the first lens and that faces the object side; the first lens , the third lens , and the fifth lens are plastic lenses whose refractive indexes are greater than 1.6, and the second lens , the fourth lens , and the sixth lens are plastic lenses whose refractive indexes are less than 1.55; and the first lens has a positive focal power, the third lens has a negative focal power, and the fifth lens has a positive focal power.
A heat-resistant resin composition, which comprises: a polyphenylene ether (PPE) resin; and a polyamide (PA) resin, wherein the polyamide (PA) resin comprises a mixed resin of a first polyamide (PA) resin and a second polyamide (PA) resin, and the melting point of the first polyamide (PA) resin is higher than the melting point of the second polyamide (PA) resin by 20°C to 100°C; and wherein the first polyamide (PA) resin is a polyamide 46 resin and the second polyamide resin (PA) is a polyamide 66 resin or a polyamide 6 resin; and wherein the weight ratio of the PPE resin and the polyamide (PA) resin is 1 : 0.2 to 8; and wherein the weight ratio of the first polyamide (PA) resin and the second polyamide (PA) resin is 1 : 0.5 to 15. a polyphenylene ether (PPE) resin; and a polyamide (PA) resin, wherein the polyamide (PA) resin comprises a mixed resin of a first polyamide (PA) resin and a second polyamide (PA) resin, and the melting point of the first polyamide (PA) resin is higher than the melting point of the second polyamide (PA) resin by 20°C to 100°C; and wherein the first polyamide (PA) resin is a polyamide 46 resin and the second polyamide resin (PA) is a polyamide 66 resin or a polyamide 6 resin; and wherein the weight ratio of the PPE resin and the polyamide (PA) resin is 1 : 0.2 to 8; and wherein the weight ratio of the first polyamide (PA) resin and the second polyamide (PA) resin is 1 : 0.5 to 15.
Method for measuring a seam peak in a pipe , in particular in a pipeline, by means of an ultrasound measurement using ultrasound probes mounted on sensor holders of a sensor mount , which is moved in a direction of transport through the pipe , wherein use is made of a sensor mount on which the sensor holders are mounted on movable skids which are pressed radially outwards by means of spring elements so that they bear against the inner face of the pipe , such that the sensor mount has a size reducibility and the sensors are at a fixed stand-off (v) from the inner face of the pipe outside of the region of a seam peak , use is made of skids having a skid width (kb) that is larger than the seam peak width (ab), measured in the circumferential direction of the pipe , of the region of a seam peak to be measured, and the sensor holders are each equipped with sensors only in a measuring region located centrally between two skid contact surfaces, wherein the measuring region width (mb) is smaller than or equal to half the skid width (kb), such that the resulting stand-off deviation (dh2) of the sensors in the region of a seam peak remains below a specified threshold value, and the sensor mount comprises at least three rings arranged successively in the direction of transport of the sensor mount , said rings having sensors borne by sensor holders , wherein the sensors on the respective rings have a track spacing (sb) and the sensors of the successive rings are offset from each other, such that full coverage of the tracks is achieved over the circumference of the pipe . use is made of a sensor mount on which the sensor holders are mounted on movable skids which are pressed radially outwards by means of spring elements so that they bear against the inner face of the pipe , such that the sensor mount has a size reducibility and the sensors are at a fixed stand-off (v) from the inner face of the pipe outside of the region of a seam peak , use is made of skids having a skid width (kb) that is larger than the seam peak width (ab), measured in the circumferential direction of the pipe , of the region of a seam peak to be measured, and the sensor holders are each equipped with sensors only in a measuring region located centrally between two skid contact surfaces, wherein the measuring region width (mb) is smaller than or equal to half the skid width (kb), such that the resulting stand-off deviation (dh2) of the sensors in the region of a seam peak remains below a specified threshold value, and the sensor mount comprises at least three rings arranged successively in the direction of transport of the sensor mount , said rings having sensors borne by sensor holders , wherein the sensors on the respective rings have a track spacing (sb) and the sensors of the successive rings are offset from each other, such that full coverage of the tracks is achieved over the circumference of the pipe .
An intra-body communication device (100-2B) comprising: a transmission unit configured to perform, in a normal mode of operation, first frame transmission using intra-body communication in a frame transmission period of the intra-body communication device (100-2B) that is decided in advance, wherein the first frame transmission is performed regardless of presence or absence of data to be transmitted to maintain the intra-body communication connection, wherein the transmission unit is configured to stop, in a sleep mode, the first frame transmission while second frame transmission is being performed by a communication partner (100-2A) in the frame transmission period of the intra-body communication device (100-2B) in order to reduce the power consumption of the intra-body communication device (100-2B). a transmission unit configured to perform, in a normal mode of operation, first frame transmission using intra-body communication in a frame transmission period of the intra-body communication device (100-2B) that is decided in advance, wherein the first frame transmission is performed regardless of presence or absence of data to be transmitted to maintain the intra-body communication connection, wherein the transmission unit is configured to stop, in a sleep mode, the first frame transmission while second frame transmission is being performed by a communication partner (100-2A) in the frame transmission period of the intra-body communication device (100-2B) in order to reduce the power consumption of the intra-body communication device (100-2B).
A method for hydrolyzing a chlorosilane polymer generated in a step of a chemical vapor deposition method using chlorosilane-based gas, characterized by : a step of bringing alcohol into contact with the chlorosilane polymer to degrade the chlorosilane polymer to alkoxide, hydrogen chloride and hydrogen, and to dilute the degraded alkoxide, hydrogen chloride and hydrogen with the alcohol; and a step of performing hydrolysis on the alkoxide by pouring the alcohol containing the diluted alkoxide into water. a step of bringing alcohol into contact with the chlorosilane polymer to degrade the chlorosilane polymer to alkoxide, hydrogen chloride and hydrogen, and to dilute the degraded alkoxide, hydrogen chloride and hydrogen with the alcohol; and a step of performing hydrolysis on the alkoxide by pouring the alcohol containing the diluted alkoxide into water.
A replaceable shaving assembly comprising: a blade unit ; an interface element configured to removeably connect the blade unit to a handle, on which the blade unit is pivotably mounted, the interface element including an elastomeric return element configured to provide a return force between the blade unit and the handle; wherein the angle of the blade unit with respect to the handle is 15 degrees at rest, and the angle of the blade unit with respect to the handle ranges from 15° to 105° during shaving; and comprising one or more support features located on the back surface of the blade unit that act as a stop for a distal end of the return element; wherein the return element is configured to bias the blade unit towards a rest position with respect to a pivot axis that is generally parallel to a long axis of the blade unit. a blade unit ; an interface element configured to removeably connect the blade unit to a handle, on which the blade unit is pivotably mounted, the interface element including an elastomeric return element configured to provide a return force between the blade unit and the handle; wherein the angle of the blade unit with respect to the handle is 15 degrees at rest, and the angle of the blade unit with respect to the handle ranges from 15° to 105° during shaving; and comprising one or more support features located on the back surface of the blade unit that act as a stop for a distal end of the return element; wherein the return element is configured to bias the blade unit towards a rest position with respect to a pivot axis that is generally parallel to a long axis of the blade unit.
An intake-air cooling device (200;500;800) disposed on a rear-stage side of a pre-filter disposed on an intake-air inlet side of an intake-air duct for guiding intake air taken in from an intake-air inlet to a compressor , for cooling the intake air by spraying water to the intake air, the intake-air cooling device (200;500;800) comprising: a plurality of nozzles (202;502;802) configured to spray the water to the intake air; a plurality of water conduit pipes (204;504;804) each including a nozzle arrangement part (203;503;803) on which the plurality of nozzles (202;502;802) is disposed in an axial direction of the water conduit pipes (204;504;804); and a plurality of supply pumps (P1,P2,P3) provided for the respective water conduit pipes (204;504;804) and configured to supply the water to corresponding one of the plurality of water conduit pipes (204;504;804), wherein each of the nozzle arrangement parts (203;503;803) of the plurality of water conduit pipes (204;504;804) is an endless member having an annular structure of a different perimeter, wherein the nozzle arrangement parts (203;503;803) of the plurality of water conduit pipes (204;504;804) are arranged concentrically or eccentrically, and wherein the plurality of nozzles (202;502;802) is arranged to have a distribution in which a density increases from a portion of the water conduit pipes (204;504;804) connected to the supply pumps (P1,P2,P3) toward a portion opposite to the portion. a plurality of nozzles (202;502;802) configured to spray the water to the intake air; a plurality of water conduit pipes (204;504;804) each including a nozzle arrangement part (203;503;803) on which the plurality of nozzles (202;502;802) is disposed in an axial direction of the water conduit pipes (204;504;804); and a plurality of supply pumps (P1,P2,P3) provided for the respective water conduit pipes (204;504;804) and configured to supply the water to corresponding one of the plurality of water conduit pipes (204;504;804), wherein each of the nozzle arrangement parts (203;503;803) of the plurality of water conduit pipes (204;504;804) is an endless member having an annular structure of a different perimeter, wherein the nozzle arrangement parts (203;503;803) of the plurality of water conduit pipes (204;504;804) are arranged concentrically or eccentrically, and wherein the plurality of nozzles (202;502;802) is arranged to have a distribution in which a density increases from a portion of the water conduit pipes (204;504;804) connected to the supply pumps (P1,P2,P3) toward a portion opposite to the portion.
A composition comprising at least 1000 unique oligonucleotide species, each unique oligonucleotide species comprising a barcode region and a uniform region, the barcode region comprising a molecule barcode comprising at least 7 nucleotides, wherein the uniform region is 3' of the barcode region, the uniform region comprising a target-specific region 3' of the barcode region, the target-specific region comprising at least 10 nucleotides complementary to a target nucleic acid, wherein the unique oligonucleotide species comprise different nucleic acid sequences in their barcode regions, and wherein: (a) the composition consists essentially of unique oligonucleotide species wherein each molecule barcode has a G content of less than 50%; and/or (b) the molecule barcodes of all of the unique oligonucleotide species in the composition collectively have a G content of no more than 12.5%, wherein the barcode region further comprises a sample barcode comprising at least 3 nucleotides. wherein the uniform region is 3' of the barcode region, the uniform region comprising a target-specific region 3' of the barcode region, the target-specific region comprising at least 10 nucleotides complementary to a target nucleic acid, wherein the unique oligonucleotide species comprise different nucleic acid sequences in their barcode regions, and wherein: (a) the composition consists essentially of unique oligonucleotide species wherein each molecule barcode has a G content of less than 50%; and/or (b) the molecule barcodes of all of the unique oligonucleotide species in the composition collectively have a G content of no more than 12.5%, (a) the composition consists essentially of unique oligonucleotide species wherein each molecule barcode has a G content of less than 50%; and/or (b) the molecule barcodes of all of the unique oligonucleotide species in the composition collectively have a G content of no more than 12.5%, wherein the barcode region further comprises a sample barcode comprising at least 3 nucleotides.
A system comprising: an additive-manufacturing device comprising: a build chamber ; a base adjustably coupled to the build chamber; a build platform adjustably coupled to the base and configured to travel, relative to the base and perpendicular to the base, in response to pressure applied to or by a build piece on the build platform; and a blade for transporting and smoothing build material over an upper surface of the build piece. a build chamber ; a base adjustably coupled to the build chamber; a build platform adjustably coupled to the base and configured to travel, relative to the base and perpendicular to the base, in response to pressure applied to or by a build piece on the build platform; and a blade for transporting and smoothing build material over an upper surface of the build piece.
Cylinder of pressurized fluid, comprising an orifice in which a valve is mounted, the cylinder comprising a protective cap that is fixed at the upper end of the cylinder and forms a protective enclosure around the valve, the cap being formed of a rigid structure delimiting a protective volume for a valve, the lower end of the rigid structure being fixed to the upper end of the cylinder , characterized in that the rigid structure has a first wall forming a central tubular portion, the valve being housed in the tubular portion delimited by the first wall with a space between the valve and the tubular portion, said tubular portion extending between the lower end and an open upper end delimiting an access orifice for accessing the internal volume sheltering the valve , the rigid structure also comprising a second wall that is disposed concentrically in a spaced-apart manner around the first wall and delimits a protective zone around the first wall , the second wall comprises an annular portion that is disposed concentrically around the first wall and is connected to the first wall via a plurality of connecting arms , the connecting arms each having an end connected to the annular portion and an end connected to the lower part of the first wall , notably at the lower end of the cap , said annular portion constituting a manual handwheel spaced apart from the first wall .
An immunomodulatory composition comprising: a) heat-killed non-pathogenic Caulobacter spp. ; b) a pharmaceutically acceptable excipient; and c) an antigen derived from a pathogenic microorganism or a tumor-associated antigen. a) heat-killed non-pathogenic Caulobacter spp. ; b) a pharmaceutically acceptable excipient; and c) an antigen derived from a pathogenic microorganism or a tumor-associated antigen.