mhurhangee/patent-ind-claim-en huggingface dataset:
Flow test unit with a housing which is closed to the outside and which comprises at least one test strip , wherein the housing has at least one admission opening , and wherein the test strip is arranged inside the housing such that a wetting region can be wetted with liquid entering via the at least one admission opening , and the housing has, on an outer face, a coupling point via which the flow test unit can be coupled to a matching counter-coupling point of a wall of a sample container , characterized in that the housing has a pressure-equalizing means in order to promote an inward flow of liquid , wherein the pressure-equalizing means is designed as a collecting pouch, and/or wherein the housing is provided with an underpressure.
A drilling tool for drilling in a formation, the drilling tool comprising: an optical fiber having a laser input end and a laser output end ; a laser source optically connected to the laser input end ; an activating agent conduit having an activating agent inlet and an activating agent outlet ; an activating agent source connected to the activating agent inlet that supplies an activating agent comprising an activating material, the activating material comprising at least one of activated carbon, graphite, carbon black, carbon nanotubes, nanoparticles, paint, dye, molybdenum disulfide, a transition metal chalcogenide, or a metamaterial; and a drill head , comprising: a nozzle connected to the activating agent outlet that discharges the activating agent on an area of the formation , and a laser head optically connected to the laser output end and arranged to lase at least a portion of the area of the formation having the activating agent. an optical fiber having a laser input end and a laser output end ; a laser source optically connected to the laser input end ; an activating agent conduit having an activating agent inlet and an activating agent outlet ; an activating agent source connected to the activating agent inlet that supplies an activating agent comprising an activating material, the activating material comprising at least one of activated carbon, graphite, carbon black, carbon nanotubes, nanoparticles, paint, dye, molybdenum disulfide, a transition metal chalcogenide, or a metamaterial; and a drill head , comprising: a nozzle connected to the activating agent outlet that discharges the activating agent on an area of the formation , and a laser head optically connected to the laser output end and arranged to lase at least a portion of the area of the formation having the activating agent. a nozzle connected to the activating agent outlet that discharges the activating agent on an area of the formation , and a laser head optically connected to the laser output end and arranged to lase at least a portion of the area of the formation having the activating agent.
A high altitude atmospheric energy storing apparatus comprising: a buoyancy body configured in a balloon shape filled with helium gas or the like, said body being in use located at high altitude over the ground an air tank being in use located on the ground and being fabricated to store air; an air supply pipe having a lower end and an upper end, said pipe being provided such that it extends in a vertical direction and its lower end is connected to the air tank ; and a compression means connected to the buoyancy body so that in use the compression means floats in the sky, said compression means being connected to the upper end of the air supply pipe , and being configured to compress air by using the wind and to supply the compressed air to the air tank through the air supply pipe . a buoyancy body configured in a balloon shape filled with helium gas or the like, said body being in use located at high altitude over the ground an air tank being in use located on the ground and being fabricated to store air; an air supply pipe having a lower end and an upper end, said pipe being provided such that it extends in a vertical direction and its lower end is connected to the air tank ; and a compression means connected to the buoyancy body so that in use the compression means floats in the sky, said compression means being connected to the upper end of the air supply pipe , and being configured to compress air by using the wind and to supply the compressed air to the air tank through the air supply pipe .
An intelligent terminal comprising a terminal heat dissipation apparatus and an intelligent terminal body , wherein the terminal heat dissipation apparatus characterised in that it comprises: at least one flexible heat pipe, wherein two ends of the flexible heat pipe are condensation ends , the middle of the flexible heat pipe is an evaporation end , each condensation end comprises one or more heat pipe rigid parts and one or more heat pipe flexible parts, the one or more heat pipe rigid parts and the one or more heat pipe flexible parts of the condensation end are arranged alternately, the evaporation end comprises at least one heat pipe rigid part, and the intelligent terminal body is mounted on the evaporation end.
A method to provide service-based discovery, the method being performed by a discovery server and comprising: receiving, from a core network node , context information relating to an M2M device (102a-102d), wherein the M2M device is available via an access network ; receiving, from the core network node, policy information relating to at least one of the M2M device or the access network; receiving a query for a service; determining that the M2M device is capable of providing the service and the access network is available to provide access to the M2M device based at least in part on the context information and the policy information; and sending a response to the query indicating that the M2M device is capable of providing the service. receiving, from a core network node , context information relating to an M2M device (102a-102d), wherein the M2M device is available via an access network ; receiving, from the core network node, policy information relating to at least one of the M2M device or the access network; receiving a query for a service; determining that the M2M device is capable of providing the service and the access network is available to provide access to the M2M device based at least in part on the context information and the policy information; and sending a response to the query indicating that the M2M device is capable of providing the service.
A breathing apparatus for artificial respiration of a patient, comprising: • a measuring apparatus that is designed as a pulse oximeter and capnograph and is configured to perform a repeating measurement of at least one patient-specific physiological parameter at time intervals by means of pulse oximetry and volumetric capnography, wherein the volumetric capnography shows an amount of the carbon dioxide eliminated in one breath over an exhaled volume of the breath, wherein the at least one patient-specific physiological parameter corresponds at least to an arterial CO 2 partial pressure PaCO 2 and an arterial oxygen saturation SpO 2 of the blood of the patient, wherein the measuring apparatus is configured to approximate the arterial CO 2 partial pressure PaCO 2 through non-invasively measured values of an alveolar CO 2 partial pressure PACO 2 in that an arterial-alveolar CO 2 difference Pa-ACO 2 is determined and added to the non-invasively measured values; • a control apparatus that is configured to establish at least one technical ventilation parameter, on the basis of which the ventilation of the patient should take place, wherein the at least one technical ventilation parameter corresponds at least to a positive end-expiratory pressure PEEP; and • a regulating unit that is configured to communicate with the measuring apparatus and the control apparatus and to adjust the at least one technical ventilation parameter on the basis of the repeating measurement of the at least one patient-specific physiological parameter. • a measuring apparatus that is designed as a pulse oximeter and capnograph and is configured to perform a repeating measurement of at least one patient-specific physiological parameter at time intervals by means of pulse oximetry and volumetric capnography, wherein the volumetric capnography shows an amount of the carbon dioxide eliminated in one breath over an exhaled volume of the breath, wherein the at least one patient-specific physiological parameter corresponds at least to an arterial CO 2 partial pressure PaCO 2 and an arterial oxygen saturation SpO 2 of the blood of the patient, wherein the measuring apparatus is configured to approximate the arterial CO 2 partial pressure PaCO 2 through non-invasively measured values of an alveolar CO 2 partial pressure PACO 2 in that an arterial-alveolar CO 2 difference Pa-ACO 2 is determined and added to the non-invasively measured values; • a control apparatus that is configured to establish at least one technical ventilation parameter, on the basis of which the ventilation of the patient should take place, wherein the at least one technical ventilation parameter corresponds at least to a positive end-expiratory pressure PEEP; and • a regulating unit that is configured to communicate with the measuring apparatus and the control apparatus and to adjust the at least one technical ventilation parameter on the basis of the repeating measurement of the at least one patient-specific physiological parameter.
A touch panel having a first electroconductive sheet wherein the first electroconductive sheet comprises: an electrode pattern constructed of a metal thin wire; and an electrode terminal configured to be electrically connected to an end of the electrode pattern , wherein an aperture ratio of the electrode pattern is 90% or more, and, the electrode pattern is provided in a sensing region and the electrode terminal is provided in an outside of the sensing region, characterized in that when the aperture ratio of the electrode pattern is represented by b%, an aperture ratio of the electrode terminal is (b-20)% or more and (b-0.1)% or less, the electrode pattern includes a plurality of electroconductive patterns and a plurality of non-electroconductive patterns , lattices in the electroconductive patterns have a same size as lattices in the non-electroconductive patterns , and the lattices in the first non-electroconductive patterns have break portions in places other than intersections of the metal thin wires. an electrode pattern constructed of a metal thin wire; and an electrode terminal configured to be electrically connected to an end of the electrode pattern , wherein an aperture ratio of the electrode pattern is 90% or more, and, the electrode pattern is provided in a sensing region and the electrode terminal is provided in an outside of the sensing region, characterized in that when the aperture ratio of the electrode pattern is represented by b%, an aperture ratio of the electrode terminal is (b-20)% or more and (b-0.1)% or less, the electrode pattern includes a plurality of electroconductive patterns and a plurality of non-electroconductive patterns , lattices in the electroconductive patterns have a same size as lattices in the non-electroconductive patterns , and the lattices in the first non-electroconductive patterns have break portions in places other than intersections of the metal thin wires.
An unmanned aerial vehicle (UAV) comprising a vehicle body and arms connected to the vehicle body , wherein one of the arms is hinged to the vehicle body by using a spherical hinge portion and is folded or unfolded relative to the vehicle body , wherein the spherical hinge portion comprises a spherical hinge housing disposed on the vehicle body and a spherical hinge that is accommodated in the spherical hinge housing and that is connected to the arm or wherein the spherical hinge portion comprises a spherical hinge housing disposed on the arm and a spherical hinge that is accommodated in the spherical hinge housing and that is connected to the vehicle body ; the UAV being characterized in that it comprises a limiting structure configured to prevent the arm from rotating relative to the vehicle body when the arm is in a folded or unfolded state, the limiting structure comprising a first clamping portion disposed on the spherical hinge housing and a second clamping portion that is disposed on the arm and that is clamped to the first clamping portion.
A semi-trailer designed for transporting watercraft that includes a gooseneck-shaped cargo platform comprising a front platform, as well as a cargo section and a rear platform located on both sides of a central beam, having at least two axles supporting road wheels, equipped with an air system, for being articulated to a tractor, characterised in that the front platform , cargo section and rear platform that comprise the cargo platform are equipped with at least one pair of pass-through mounting holes each, which are divided into an outer mounting hole and an inner mounting hole and, with respect to the transverse axis (A) of the cargo platform, the outer mounting hole is positioned at a right angle (β) and the inner mounting hole is inclined at an acute angle (α), wherein each mounting hole is equipped with a pair of pass-through locking slots located below the level of the cargo platform , while at the same time each mounting hole acts as a seat for a slide-in installation of a supporting column whose lower part is equipped with at least one pair of pass-through locking slots , and whose upper part is equipped with an installation inlet that is the location for a threaded bracket equipped with a positioning screw , to which a supporting crossbar is fixed that contains at least one mounting projection , which articulates, by means of a pin , to a profile connected by fastenings to a swinging support foot , while at the same time the cargo section is connected to the rear platform by an inclined wall under which a compressed air container is located. characterised in that the front platform , cargo section and rear platform that comprise the cargo platform are equipped with at least one pair of pass-through mounting holes each, which are divided into an outer mounting hole and an inner mounting hole and, with respect to the transverse axis (A) of the cargo platform, the outer mounting hole is positioned at a right angle (β) and the inner mounting hole is inclined at an acute angle (α), wherein each mounting hole is equipped with a pair of pass-through locking slots located below the level of the cargo platform , while at the same time each mounting hole acts as a seat for a slide-in installation of a supporting column whose lower part is equipped with at least one pair of pass-through locking slots , and whose upper part is equipped with an installation inlet that is the location for a threaded bracket equipped with a positioning screw , to which a supporting crossbar is fixed that contains at least one mounting projection , which articulates, by means of a pin , to a profile connected by fastenings to a swinging support foot , while at the same time the cargo section is connected to the rear platform by an inclined wall under which a compressed air container is located.
A fitting for holding in the machining and/or assembly position a substantially flat component with a thickness less than or equal to a predetermined maximum thickness (E) and extending on either side of a median plane (PM), in which said fitting includes stops (2; 3) defining at least two radial abutment support surfaces (S1; S2; S3) including generators which are substantially perpendicular to a reference plane (PR) of said fitting , relative to which reference plane (PR) said median plane (PM) of one said component is parallel or coincident in said machining and/or assembly position, and which are arranged to cooperate in abutment support with peripheral edge support surfaces (11; 12; 13) of one said component , in which said fitting includes a chamber which is bordered, on either side of said reference plane (PR), by jaws (21; 22) including clamping surfaces (310; 320) for holding one said component , said chamber being open on at least one side by a recess (41; 42) capable of enabling the passage of a tool or another component or a machining and/or assembly means to perform an operation on one said component , in which said fitting includes a single insertion orifice capable of enabling the insertion of one said component into said chamber towards said radial abutment support surfaces (S1; S2; S3) of said fitting , in which said fitting is deformable between an open position in which said insertion orifice has a maximum opening of width equal to said predetermined maximum thickness (E), in the direction of the thickness of one said component on either side of the said median plane (PM) thereof, and in which open position one said component can be inserted into said chamber to an abutment support position on said radial abutment support surfaces (S1; S2; S3), and a closed position around one said component held supported on said radial abutment support surfaces (S1; S2; S3) and tightened by said jaws (21; 22) subjected to a closing force exerted by manoeuvring means arranged to bring said jaws (21; 22) closer to each other and in which said manoeuvring means include flexible hinges formed in said fitting , which are arranged to, by elastic deformation, generate a relative movement between said jaws .
An adeno-associated viral (AAV) vector comprising a nucleic acid encoding a capsid comprising the amino acid sequence of SEQ ID NO: 4 or SEQ ID NO: 9, wherein the AAV vector further comprises a heterologous nucleic acid sequence.
A molecular assembly comprising: an amphiphilic block polymer A1 comprising a hydrophilic block having a sarcosine unit and a hydrophobic block having a lactic acid unit; a hydrophobic polymer A2 having a lactic acid unit; a fatty acid triglyceride; and a fat-soluble drug, wherein the hydrophobic polymer A2, the fatty acid triglyceride, and the fat-soluble drug exist in a hydrophobic core part of the molecular assembly composed of the amphiphilic block polymer A1. an amphiphilic block polymer A1 comprising a hydrophilic block having a sarcosine unit and a hydrophobic block having a lactic acid unit; a hydrophobic polymer A2 having a lactic acid unit; a fatty acid triglyceride; and a fat-soluble drug,
Method for filling and closing a thin-walled plastic container , in particular a PET bottle, wherein a plastic container is produced from a preform by a blow moulding process, and the plastic container is filled with a flowable medium and in particular a liquid, and a replacement medium is introduced into the plastic container so that as the internal container pressure increases at least partial displacement of the previously contained medium takes place and the plastic container is at least partially closed, characterized in that in at least one portion of a wall of the plastic container surrounding a head space of the plastic container or a wall of the container closure at least one opening is introduced, and through this opening in the interior space of the plastic container a predetermined internal container pressure is set by feeding in and/or discharging a gaseous medium.
A dose counter (1;201) for counting the number of doses of medicament dispensed from a medicament dispenser comprising: first (20;220) and second (30;230) count wheels which are concentrically arranged for rotation on a common axis of rotation (F-F), each count wheel having count indicia (22,32;222,232) thereon; a display region (16;216) positioned for the count indicia of each count wheel to register with and display the count of the counter; means (50;250) for incrementally rotating the first count wheel in a predetermined sense to change the count indicia thereof registering with the display region; and a mechanism (28a,28b,34,40;228a,228b,234,240) adapted to intermittently transmit the incremental rotation of the first count wheel into an incremental rotation of the second count wheel in a predetermined sense to change the count indicia thereof registering with the display region; characterised in that said means is a ratchet wheel (50; 250) which is arranged for rotation about the common axis of rotation (i) in the same sense as the predetermined sense of the first count wheel to drivably rotate the first count wheel in the predetermined sense, and (ii) in the opposite sense relative to the first count wheel. first (20;220) and second (30;230) count wheels which are concentrically arranged for rotation on a common axis of rotation (F-F), each count wheel having count indicia (22,32;222,232) thereon; a display region (16;216) positioned for the count indicia of each count wheel to register with and display the count of the counter; means (50;250) for incrementally rotating the first count wheel in a predetermined sense to change the count indicia thereof registering with the display region; and a mechanism (28a,28b,34,40;228a,228b,234,240) adapted to intermittently transmit the incremental rotation of the first count wheel into an incremental rotation of the second count wheel in a predetermined sense to change the count indicia thereof registering with the display region; characterised in that said means is a ratchet wheel (50; 250) which is arranged for rotation about the common axis of rotation (i) in the same sense as the predetermined sense of the first count wheel to drivably rotate the first count wheel in the predetermined sense, and (ii) in the opposite sense relative to the first count wheel.
Thermal energy storage device, in particular a multi-zonal storage device in the form of a flat-bottomed tank, having a floor in the form of a foundation, a roof and a wall structure in the form of a cylinder arranged between the floor and the roof , wherein the energy storage device has at least two storage zones (S1, S2) for storing a heat transfer medium, wherein a lower first storage zone (S1) and a second storage zone (S2) above the first storage zone (S1) are arranged, wherein the first and second storage zones (S1, S2) are separated from one another by means of a first fixedly arranged intermediate ceiling (Z1), wherein a further liquid-tight intermediate ceiling (Z2) bounding the storage zone (S2) at the top is arranged above the second storage zone (S2), and above the liquid-tight second intermediate ceiling (Z2) there is a fluid-filled (heat transfer medium/water) compensation zone (A) whose the weight acts on the second storage zone (S2), and in that a floating ceiling (SD) is arranged on the compensation zone (A).