mhurhangee/patent-ind-claim-en huggingface dataset:
A tying system employing an accessory bearing a quick attachment hook for tying a plastic film covering for linear cultivations that bears grommets along both its sides wherein it consists of at least two distinct parts of which one constitutes the tying material and the second part is an injection, in particular moulded and/or 3D printed, plastic part (A) that is connected to the tying material (T), and said second part bears at least a set of grips and protrusion to fix the tying material characterised in that , said system further comprises a hook boasting two formed lips (L1 and L2) at its entry / exit point that facilitate the insertion of a wire rope while deflects any obstructions from entering when the tying system is pulled with the film on the field, wherein the formed lips (L1 and L2) are cylindrical, ellipsoid, trapezoid or indeed of any geometry, of the same or varying geometry along their length, so that the lips protrude towards the outer boundaries of the main body of the accessory or additionally towards both directions in relation to the imaginary line that connects said lips through the formed gap.
A wet electrolytic capacitor comprising: an anode that comprises a pellet formed from a pressed and sintered tantalum powder, wherein a tantalum pentoxide dielectric layer that has no more than 1,000 crystals per square millimeter or less is formed on the pellet a cathode that comprises a metal substrate coated with a conductive coating; and a fluidic working electrolyte in communication with the anode and the cathode. an anode that comprises a pellet formed from a pressed and sintered tantalum powder, wherein a tantalum pentoxide dielectric layer that has no more than 1,000 crystals per square millimeter or less is formed on the pellet a cathode that comprises a metal substrate coated with a conductive coating; and a fluidic working electrolyte in communication with the anode and the cathode.
A pneumatic tire comprising, as a framework, at least one carcass ply comprising a steel cord covered with rubber, wherein letting d (mm) be a cord diameter of the steel cord and T (MPa) be a tensile strength of a steel filament forming the steel cord, the following relation is satisfied: a 1 T − b 1 > d > a 2 T + b 2 where a 1 is 3.65 × 10 -4 mm/MPa, b 1 is 0.42 mm, a 2 is -8.00 × 10 -5 mm/MPa, and b 2 is 0.78 mm, and the tensile strength T of the steel filament is higher than 3200 MPa to lower than 3800 MPa; the number of ends E under a bead core of the steel cord in the carcass ply is higher than 14 ends/25 mm to lower than 30 ends/25 mm; the steel filament has a wire diameter of 0.15 to 0.20 mm; and the steel cord has a two-layer twisted structure of the 3+8 or 3+9 structure.
A crustacean pincer restraint comprising: a separator for insertion between upper and lower crustacean pincers ; the separator comprising a tang for locating and hooking to a position at the rear of an upper or lower pincer; and an anchor for anchoring the separator between the upper and lower pincers to restrain the crustacean pincers in use. a separator for insertion between upper and lower crustacean pincers ; the separator comprising a tang for locating and hooking to a position at the rear of an upper or lower pincer; and an anchor for anchoring the separator between the upper and lower pincers to restrain the crustacean pincers in use.
A system comprising: an elongated catheter comprising a proximal end configured for operative coupling to an electrical power source, a distal end with a first electrical connector and a first conducting wire to electrically couple the electrical power source with the first electrical connector; an implant comprising a tissue energising module and a proximal connecting hub configured to detachably couple with the distal end of the elongated catheter by axial movement of the elongated catheter relative to the proximal connecting hub, the proximal connecting hub comprising a second electrical connector configured to mate with the first electrical connector and electrically coupled the first electrical connector with the tissue energising module through a second conducting wire ; and a latch system to lock the distal end of the catheter to the proximal connecting hub arm comprising: an arm attached to the distal end of the catheter that is resiliently deformable from a radially outward or radially inward unlatched configuration to a straight tensioned latched configuration in which the arm engages the sidewall of the proximal connecting hub; and a locking element that is axially adjustable from a retracted orientation to a distally extended orientation in which the locking element retains the arm in the latched configuration. an elongated catheter comprising a proximal end configured for operative coupling to an electrical power source, a distal end with a first electrical connector and a first conducting wire to electrically couple the electrical power source with the first electrical connector; an implant comprising a tissue energising module and a proximal connecting hub configured to detachably couple with the distal end of the elongated catheter by axial movement of the elongated catheter relative to the proximal connecting hub, the proximal connecting hub comprising a second electrical connector configured to mate with the first electrical connector and electrically coupled the first electrical connector with the tissue energising module through a second conducting wire ; and a latch system to lock the distal end of the catheter to the proximal connecting hub arm comprising: an arm attached to the distal end of the catheter that is resiliently deformable from a radially outward or radially inward unlatched configuration to a straight tensioned latched configuration in which the arm engages the sidewall of the proximal connecting hub; and a locking element that is axially adjustable from a retracted orientation to a distally extended orientation in which the locking element retains the arm in the latched configuration. an arm attached to the distal end of the catheter that is resiliently deformable from a radially outward or radially inward unlatched configuration to a straight tensioned latched configuration in which the arm engages the sidewall of the proximal connecting hub; and a locking element that is axially adjustable from a retracted orientation to a distally extended orientation in which the locking element retains the arm in the latched configuration.
Mount for a weapon, intended for fitting to a manhole of a military vehicle , which mount comprises a fixed ring , a mobile ring , an arm , a pivot link and a bearing , such that said fixed ring can be secured to the vehicle so as to surround the manhole , wherein said fixed ring surrounds said mobile ring , which is mounted so as to pivot with respect to said fixed ring thanks to said bearing , the mobile ring carrying said arm , which is secured to the mobile ring by said horizontal pivot link at a first end of the arm , wherein the arm can thus pivot between a first, so-called folded position, and a second, so-called unfolded position, the second end of the arm comprising a fastening means intended to receive a weapon in a removable manner when the arm is unfolded, the mount being characterised in that the arm in the folded position is contained inside a volume defined by the height of the fixed and mobile rings and the inside diameter of the mobile ring .
A method for use in avoiding jitter in a communication network , the method comprising: an ingress point of the communication network receiving (s402) packets of a packet stream, wherein the packets are to be delivered with an agreed fixed latency and each received at the ingress point at a time within a particular time slot; the ingress point, during at least a period of time, incrementing a slot counter value every T units of time, wherein T represents an amount of time between slots; for each of the received packets, the ingress point creating (s404) a modified packet that includes the received packet and a slot identifier indicating the particular time slot in which the packet was received, wherein the slot identifier is the value of the slot counter at the time the ingress point received the packet; and the ingress point transmitting (s406) the modified packets towards an egress point of the communication network, wherein the ingress point and the egress point share the same value of T for incrementing the slot counter value. an ingress point of the communication network receiving (s402) packets of a packet stream, wherein the packets are to be delivered with an agreed fixed latency and each received at the ingress point at a time within a particular time slot; the ingress point, during at least a period of time, incrementing a slot counter value every T units of time, wherein T represents an amount of time between slots; for each of the received packets, the ingress point creating (s404) a modified packet that includes the received packet and a slot identifier indicating the particular time slot in which the packet was received, wherein the slot identifier is the value of the slot counter at the time the ingress point received the packet; and the ingress point transmitting (s406) the modified packets towards an egress point of the communication network, wherein the ingress point and the egress point share the same value of T for incrementing the slot counter value.
A system for treatment of an aneurysm, comprising: a first catheter having a distal portion configured to be intravascularly positioned within a cavity of an aneurysm; a framing structure formed from a braided material, the framing structure configured to be delivered to the cavity through the first catheter in a low profile state and to self-expand into an expanded state when released from the first catheter , wherein, in the expanded state, at least a portion of the framing structure contacts an inner wall of the aneurysm, and wherein the framing structure comprises a braided device comprising a multi-layer shell in the expanded state, wherein the framing structure has: a first coupling device at a first end and closing said first end ; and a second coupling device at a second end and closing said second end ; a second catheter ; and a liquid embolic configured to be positioned in the aneurysm cavity through the second catheter . a first catheter having a distal portion configured to be intravascularly positioned within a cavity of an aneurysm; a framing structure formed from a braided material, the framing structure configured to be delivered to the cavity through the first catheter in a low profile state and to self-expand into an expanded state when released from the first catheter , wherein, in the expanded state, at least a portion of the framing structure contacts an inner wall of the aneurysm, and wherein the framing structure comprises a braided device comprising a multi-layer shell in the expanded state, wherein the framing structure has: a first coupling device at a first end and closing said first end ; and a second coupling device at a second end and closing said second end ; a second catheter ; and a liquid embolic configured to be positioned in the aneurysm cavity through the second catheter .
A pharmaceutical composition comprising: (i) a drug component comprising salbutamol base; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (HFA-152a). (i) a drug component comprising salbutamol base; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (HFA-152a).
A drive system for a transport system , the transport system comprising moving parts that form the transport system in a transition speed section situated between an embarking/disembarking zone and a middle zone, wherein the drive system comprises: 1a) actuation means for transmitting an actuation motion from at least one motor , wherein the actuation means comprise a screw having a constant pitch in the high-speed zones a variable pitch in the transition speed zones; 1b) first pulling means configured to: 1b1) transmit a pulling motion from the actuation means to each one of the moving parts , 1b2) and, in a high-speed section, to drive 1c) second pulling means configured to transmit the pulling motion from the first pulling means to each one of the moving parts , wherein the first pulling means comprises a drive roller ; characterized in that the first pulling means further comprises a driven roller ; wherein the actuation means transmits the motion of the first pulling means by means of a first helix that engages with the drive roller of the first pulling means and prevents there being looseness between the two by means of a second helix that engages with a driven roller of the first pulling means , wherein the drive roller and the driven roller have a variable radius. 1a) actuation means for transmitting an actuation motion from at least one motor , wherein the actuation means comprise a screw having a constant pitch in the high-speed zones a variable pitch in the transition speed zones; 1b) first pulling means configured to: 1b1) transmit a pulling motion from the actuation means to each one of the moving parts , 1b2) and, in a high-speed section, to drive 1b1) transmit a pulling motion from the actuation means to each one of the moving parts , 1b2) and, in a high-speed section, to drive 1c) second pulling means configured to transmit the pulling motion from the first pulling means to each one of the moving parts , wherein the first pulling means comprises a drive roller ; characterized in that the first pulling means further comprises a driven roller ; wherein the actuation means transmits the motion of the first pulling means by means of a first helix that engages with the drive roller of the first pulling means and prevents there being looseness between the two by means of a second helix that engages with a driven roller of the first pulling means , wherein the drive roller and the driven roller have a variable radius.
A method for determining the state of a cell aggregation, comprising the steps of: obtaining images in a time lapse of a cell aggregation taken by an imaging device; segmenting (S20) cell aggregations in each of the obtained images, labeling (S30) the segmented cell aggregations, and making associations for the cell aggregations between the obtained images such that overlapping labels between obtained images represent the same cell aggregation; aligning cell aggregations with the same label to reduce the effect of cases in which cell aggregations move; dividing obtained images of aligned and associated cell aggregations into a plurality of small regions being smaller than the size of cell aggregations and centered on pixels forming the obtained images; calculating in a time lapse a spatial luminance distribution of small regions in the cell aggregation in the obtained images; executing a small region spatial analysis to calculate a spatial change of a luminance variance of each small region relative to a spatial direction; executing a small region time-lapse analysis to calculate a temporal change of luminance variances of each small region between obtained images; and determining a state of the cell aggregation toward becoming multi-layered when the spatial change of luminance variance is larger than a first predetermined threshold value and the temporal change of the luminance value is larger than a second predetermined threshold value. obtaining images in a time lapse of a cell aggregation taken by an imaging device; segmenting (S20) cell aggregations in each of the obtained images, labeling (S30) the segmented cell aggregations, and making associations for the cell aggregations between the obtained images such that overlapping labels between obtained images represent the same cell aggregation; aligning cell aggregations with the same label to reduce the effect of cases in which cell aggregations move; dividing obtained images of aligned and associated cell aggregations into a plurality of small regions being smaller than the size of cell aggregations and centered on pixels forming the obtained images; calculating in a time lapse a spatial luminance distribution of small regions in the cell aggregation in the obtained images; executing a small region spatial analysis to calculate a spatial change of a luminance variance of each small region relative to a spatial direction; executing a small region time-lapse analysis to calculate a temporal change of luminance variances of each small region between obtained images; and determining a state of the cell aggregation toward becoming multi-layered when the spatial change of luminance variance is larger than a first predetermined threshold value and the temporal change of the luminance value is larger than a second predetermined threshold value.
Method for producing a decorated wall or floor panel, comprising the method steps: a) providing a pourable carrier material , in particular a granulate; b) placing the carrier material between two belt-like conveying means ; c) molding the carrier material under the action of temperature while forming a web-shaped carrier ; d) compressing the carrier ; e) treating the carrier under the action of pressure by use of a double-belt press at a temperature T1 while forming a compression factor K1 of the carrier ; f) treating the carrier under the action of pressure at a temperature T2 while forming a compression factor K2 of the carrier , wherein T2 < T1 and wherein K2 < K1; g) optionally cooling the carrier ; h) optionally applying a decoration subsurface onto at least a partial area of the carrier ; i) applying a decoration which replicates a decoration template onto at least a partial area of the carrier ; and j) applying a protective layer onto at least a partial area of the decoration. a) providing a pourable carrier material , in particular a granulate; b) placing the carrier material between two belt-like conveying means ; c) molding the carrier material under the action of temperature while forming a web-shaped carrier ; d) compressing the carrier ; e) treating the carrier under the action of pressure by use of a double-belt press at a temperature T1 while forming a compression factor K1 of the carrier ; f) treating the carrier under the action of pressure at a temperature T2 while forming a compression factor K2 of the carrier , wherein T2 < T1 and wherein K2 < K1; g) optionally cooling the carrier ; h) optionally applying a decoration subsurface onto at least a partial area of the carrier ; i) applying a decoration which replicates a decoration template onto at least a partial area of the carrier ; and j) applying a protective layer onto at least a partial area of the decoration.
A tampon, comprising: an absorbent body formed of a fluid absorbent material and defining a cylindrical shape having an exterior surface, a hollow interior, an interior surface, and first and second opposing distal ends; a protective sleeve fully surrounding the absorbent body at both the exterior surface and interior surface, the protective sleeve being porous to allow fluid to enter the absorbent body but prevent absorbent body material from passing through the protective sleeve , wherein the absorbent body and the protective sleeve combine to define an overall tubular structure , with a cupped shape, having an inner hollow region that is open at the second distal end of the absorbent body and is shut at the first distal end of the absorbent body, said first distal end being pinched or compressed, and wherein ends of the protective sleeve are stitched together or are hold on the absorbent body by a string attachment at the first distal end of the absorbent body; and a string coupled to the protective sleeve at the first distal end of the absorbent body, wherein the string facilitates removal of the tampon after use, wherein the tampon is compressed. an absorbent body formed of a fluid absorbent material and defining a cylindrical shape having an exterior surface, a hollow interior, an interior surface, and first and second opposing distal ends; a protective sleeve fully surrounding the absorbent body at both the exterior surface and interior surface, the protective sleeve being porous to allow fluid to enter the absorbent body but prevent absorbent body material from passing through the protective sleeve , wherein the absorbent body and the protective sleeve combine to define an overall tubular structure , with a cupped shape, having an inner hollow region that is open at the second distal end of the absorbent body and is shut at the first distal end of the absorbent body, said first distal end being pinched or compressed, and wherein ends of the protective sleeve are stitched together or are hold on the absorbent body by a string attachment at the first distal end of the absorbent body; and a string coupled to the protective sleeve at the first distal end of the absorbent body, wherein the string facilitates removal of the tampon after use, wherein the tampon is compressed.
An over-the-air test system for testing a device under test over-the-air, wherein the over-the-air test system comprises a signal generation and/or analysis equipment , a reflector with a focal point, one center antenna and antenna elements , wherein the center antenna is orientated towards the focal point of the reflector , wherein the antenna elements are symmetrically located around the center antenna , wherein the signal generation and/or analysis equipment is connected with the center antenna and the antenna elements , and wherein the over-the-air test system is configured to operate the center antenna and the antenna elements differently such that an operational frequency range of the center antenna is different to an operational frequency range of the antenna elements , characterized in that the antenna elements are configured to generate quiet zones that are located adjacent to each other, thereby establishing a combined quiet zone associated with a combined space, wherein the combined space substantially equals the space of the main quiet zone that is generated by the center antenna .
Steering column for a motor vehicle, comprising an adjustment unit with a steering spindle mounted rotatably about its longitudinal axis (L) in a casing tube , a support unit which is connectable to the body of the motor vehicle and in which the adjustment unit can be mounted so as to be adjustable in the direction of the longitudinal axis (L), and a stop device with a movably mounted stop element which can be brought into a blocking position or a release position, wherein, in the blocking position, the stop element limits the adjustment travel of the adjustment unit relative to the support unit and, in the release position, allows the adjustability in the direction of the longitudinal axis (L) beyond the adjustment travel which is limited in the blocking position, wherein the stop device has an actuation body which has an inert mass, is actively connected to the stop element and mounted movably relative to the support unit , wherein, in the event of a crash, the mass inertia of the actuation body causes the latter to interact with the stop element for movement of the stop element out of the blocking position into the release position, characterized in that an energy absorption device is arranged between the adjustment unit and the support unit .