mhurhangee/patent-ind-claim-en huggingface dataset:
A ventricular assist system, the system comprising: an implantable ventricular assist device comprising an energy storage component and a secondary coil electrically coupled to the energy storage component ; and an inductive coupling device for transcutaneously charging the ventricular assist device, the inductive coupling device comprising: a flexible housing defining an internal volume; a resonant circuit comprising a coil disposed within the internal volume of the housing , wherein the coil is deformable; characterized by a plurality of sensors coupled to the coil ; and a processor operably coupled to the plurality of sensors , wherein the processor is configured to determine a deformation of the coil based on at least one signal received from at least one of the plurality of sensors . an implantable ventricular assist device comprising an energy storage component and a secondary coil electrically coupled to the energy storage component ; and an inductive coupling device for transcutaneously charging the ventricular assist device, the inductive coupling device comprising: a flexible housing defining an internal volume; a resonant circuit comprising a coil disposed within the internal volume of the housing , wherein the coil is deformable; characterized by a plurality of sensors coupled to the coil ; and a processor operably coupled to the plurality of sensors , wherein the processor is configured to determine a deformation of the coil based on at least one signal received from at least one of the plurality of sensors . a flexible housing defining an internal volume; a resonant circuit comprising a coil disposed within the internal volume of the housing , wherein the coil is deformable; characterized by a plurality of sensors coupled to the coil ; and a processor operably coupled to the plurality of sensors , wherein the processor is configured to determine a deformation of the coil based on at least one signal received from at least one of the plurality of sensors .
A biosensor comprising: a backside illumination complementary metal-oxide-semiconductor (CMOS) image sensor including: an electronic circuit layer ; and a photo sensing layer over the electronic circuit layer, wherein the photo sensing layer includes: a substrate layer , and a plurality of photodiodes in contact with the electronic circuit layer , and wherein a light receiving surface is defined by a surface of the plurality of photodiodes opposite to the electronic circuit layer; a passivation layer on the plurality of photodiodes, wherein the passivation layer includes an oxide; and a regular array of spots on the passivation layer above the light receiving surface, wherein each spot is a discrete area bearing positive charge sized and functionalized to receive and retain a nucleic acid macromolecule by non-covalent interaction, wherein each spot overlies a single photodiode or overlies a unit cell comprising a plurality of photodiodes, and wherein each spot of the array of spots is separated from other spots by areas that are inert in the sense that they do not receive and retain nucleic acid macromolecules, and wherein the biosensor does not comprise a color filter layer. a backside illumination complementary metal-oxide-semiconductor (CMOS) image sensor including: an electronic circuit layer ; and a photo sensing layer over the electronic circuit layer, wherein the photo sensing layer includes: an electronic circuit layer ; and a photo sensing layer over the electronic circuit layer, wherein the photo sensing layer includes: a substrate layer , and a plurality of photodiodes in contact with the electronic circuit layer , and wherein a light receiving surface is defined by a surface of the plurality of photodiodes opposite to the electronic circuit layer; a passivation layer on the plurality of photodiodes, wherein the passivation layer includes an oxide; and a regular array of spots on the passivation layer above the light receiving surface, wherein each spot is a discrete area bearing positive charge sized and functionalized to receive and retain a nucleic acid macromolecule by non-covalent interaction, wherein each spot overlies a single photodiode or overlies a unit cell comprising a plurality of photodiodes, and wherein each spot of the array of spots is separated from other spots by areas that are inert in the sense that they do not receive and retain nucleic acid macromolecules, and wherein the biosensor does not comprise a color filter layer.
A method for unloading a patient transport device from a vehicle, in particular from a patient transport or emergency ambulance, the vehicle comprising a loading area and a receiving device thereon having an extendable and retractable receiving slide for the patient transport device on which the patient transport device is positioned to be locked by means of a locking device in a locking position, comprising the following steps: aa) unlocking the receiving slide , which is in its fully retracted retraction position and directly or indirectly locked to the vehicle in this state, bb) extending the receiving slide up to an unloading position in which the receiving slide is automatically locked and at least partially protrudes towards the rear beyond the loading area of the vehicle , cc) automatically unlocking the patient transport device when the receiving slide takes up the unloading position by automatically transferring the locking device from its locking position to an unlocking position, and dd) unloading the patient transport device from the receiving slide in its unloading position. aa) unlocking the receiving slide , which is in its fully retracted retraction position and directly or indirectly locked to the vehicle in this state, bb) extending the receiving slide up to an unloading position in which the receiving slide is automatically locked and at least partially protrudes towards the rear beyond the loading area of the vehicle , cc) automatically unlocking the patient transport device when the receiving slide takes up the unloading position by automatically transferring the locking device from its locking position to an unlocking position, and dd) unloading the patient transport device from the receiving slide in its unloading position.
A biaxially-stretched polyester film having features (a), (b), (c), and (d) below and having a thickness of 10 to 30 μm: (a) the biaxially-stretched polyester film is formed from a polyester resin composition containing a polybutylene terephthalate resin (A) in a range of 60% by mass or more; (b) a thermal shrinkage of the biaxially-stretched polyester film at 150°C for 30 minutes is -2 to +2%; (c) thickness accuracy of the biaxially-stretched polyester film is 1 to 20%; and characterized by (d) a total amount of 1,4-butanediol and tetrahydrofuran volatilized during heating at a temperature of 135°C for 60 minutes is not more than 1800 ppb. (a) the biaxially-stretched polyester film is formed from a polyester resin composition containing a polybutylene terephthalate resin (A) in a range of 60% by mass or more; (b) a thermal shrinkage of the biaxially-stretched polyester film at 150°C for 30 minutes is -2 to +2%; (c) thickness accuracy of the biaxially-stretched polyester film is 1 to 20%; and characterized by (d) a total amount of 1,4-butanediol and tetrahydrofuran volatilized during heating at a temperature of 135°C for 60 minutes is not more than 1800 ppb.
A battery module , comprising: a first sub-module and a second sub-module , each of the first and second sub-modules including a plurality of battery cells ; a lower cover supporting the first sub-module and the second sub-module ; a connection member disposed between the first sub-module and the second sub-module and coupled to the lower cover ; and a cooling plate configured to cool the first and second sub-modules and coupled to the lower cover to form a flow path through which a refrigerant can flow, wherein at least a portion of the flow path is disposed to oppose the connection member with the lower cover interposed therebetween, wherein the cooling plate includes an avoidance portion provided to correspond to positions in which the connection member and the lower cover are coupled to each other. a first sub-module and a second sub-module , each of the first and second sub-modules including a plurality of battery cells ; a lower cover supporting the first sub-module and the second sub-module ; a connection member disposed between the first sub-module and the second sub-module and coupled to the lower cover ; and a cooling plate configured to cool the first and second sub-modules and coupled to the lower cover to form a flow path through which a refrigerant can flow, wherein at least a portion of the flow path is disposed to oppose the connection member with the lower cover interposed therebetween, wherein the cooling plate includes an avoidance portion provided to correspond to positions in which the connection member and the lower cover are coupled to each other.
Piston of an internal combustion engine, having an upper part with a ring zone and a piston skirt which adjoins the upper part , at least one space being made in the piston , in which space a coolant is filled, the coolant being filled into a coolant container and the coolant container being inserted into the at least one space in the piston , characterized in that the coolant container is of elongate and cylindrical configuration and its longitudinal axis runs through a dome of a combustion chamber recess of the piston .
Depression force transmission element between a switch body and an integer number N greater than or equal to 2 of electronic switches arranged on the ends of a segment ( S ) or the vertices of a polygon ( P ), comprising N plungers that are translationally mobile along an axis of depression of the switch body , and a flexible frame linking the N plungers , the frame comprising: for each plunger , a bypass portion each partially surrounding the associated plunger , characterized in that the frame comprises: link portions pairwise linking the bypass portions so as to form a closed outer frame, and in that the frame comprises: control beams bearing on a free end a plunger , and linked by the other end to the bypass portion of an adjacent plunger following the polygon ( P ) in a predetermined direction.
Method for controlling a combustion device , the combustion device comprising a first combustion sensor and a second sensor , wherein the second sensor is different from the first combustion sensor , the method comprising the steps of: specifying a first setpoint value for a signal from the first combustion sensor for a first fuel ; controlling the combustion device using the first combustion sensor to the first setpoint value for the signal originating from the first combustion sensor ; using the first combustion sensor to record a first signal; using the second sensor to record a second signal; determining a second fuel as a function of the first signal and as a function of the second signal; comparing the first fuel with the second fuel with regard to a composition of the fuels ; if the second fuel is of a different composition from the first fuel : determining a second setpoint value for the signal originating from the first combustion sensor as a function of the second fuel ; and controlling the combustion device using the first combustion sensor to the second setpoint value for the signal originating from the first combustion sensor . specifying a first setpoint value for a signal from the first combustion sensor for a first fuel ; controlling the combustion device using the first combustion sensor to the first setpoint value for the signal originating from the first combustion sensor ; using the first combustion sensor to record a first signal; using the second sensor to record a second signal; determining a second fuel as a function of the first signal and as a function of the second signal; comparing the first fuel with the second fuel with regard to a composition of the fuels ; if the second fuel is of a different composition from the first fuel : determining a second setpoint value for the signal originating from the first combustion sensor as a function of the second fuel ; and controlling the combustion device using the first combustion sensor to the second setpoint value for the signal originating from the first combustion sensor . determining a second setpoint value for the signal originating from the first combustion sensor as a function of the second fuel ; and controlling the combustion device using the first combustion sensor to the second setpoint value for the signal originating from the first combustion sensor .
Mask assembly for a ventilation apparatus for ventilating a patient , having a respiratory mask for positioning over the mouth and over the nose of the patient , a nasal cannula assembly , which has a tube , for guiding a ventilation gas into the nose of the patient , and a holding means for holding the nasal cannula assembly on the respiratory mask , characterized in that the holding means has a fastening means which is adjustable between a first functional state for fixing the tube in a fixed holding position on the respiratory mask and a second functional state for releasing the tube from the fixed holding position, for a displacement movement between the tube and the respiratory mask .
Profile arrangement , in particular for a refrigerator or freezer apparatus , comprising at least one base , at least one fastening arrangement , at least one sealing arrangement and at least one profile element , wherein at least one free end of the profile element is arranged on the sealing arrangement , wherein the sealing arrangement has at least one hollow chamber , wherein the profile element is arranged on the sealing arrangement such that it is approximately orthogonal, characterised in that the profile element is configured such that it is approximately linear, approximately prismatic in cross-section, and has a wall thickness of approximately 0.1 to 10 mm, preferably approximately 0.25 to 5 mm, in that at least one further free end of the profile element is connected to the base by way of at least one movement arrangement which at least partially projects into the sealing arrangement and which has at least two movement sections that are arranged approximately opposite one another, in that the at least one movement arrangement projects into the sealing arrangement approximately at an acute angle in relation to the profile element , and in that the movement arrangement is produced from a flexible polymer material having a Shore A hardness according to DIN EN ISO 868 of approximately 50 to 100 and preferably 60 to 90.
A binder composition used for binding an electrode active material to a current collector where the electrode active material is coated, the binder composition comprising: an electrolyte active material and a first vinylidene fluoride polymer containing only vinylidene fluoride as a monomer unit, the vinylidene fluoride polymer having an inherent viscosity η i of 1.7 dL/g or higher; and a second vinylidene fluoride polymer containing acrylic acid or methacrylic acid as a monomer unit; wherein the inherent viscosity η i is determined by following equation: η i = 1 / C ⋅ ln η / η 0 , wherein η represents a viscosity of a polymer solution of 80 mg of the polymer being dissolved in 20 mL of N,N-dimethylformamide, n 0 represents a viscosity of N,N-dimethylformamide serving as a solvent, and C represents 0.4 g/dL, characterized in that the electrode active material is an olivine type lithium compound.
An integrated glazing for performing pre-defined operations in a vehicle, the glazing comprising: - layers of glass; - at least one data transponder embedded between the layers of glass, wherein the data transponder stores and processes data pertaining to vehicle configuration, vehicle ID/VIN Number, user ID, user payment credentials, user information, user customized/personalized settings, license details, service information, insurance details, website/URL, pre-defined location boundary information and location information; - a display unit comprising display elements disposed between layers of glass, communicating with the data transponder; - a data channel coupled to the data transponder, wherein the coupling is one of wired or wirelessly communication; and - a power channel which is wired or wirelessly integrated to the glazing; the power and data channel are coupled to a defogger and an antenna attached to a layer of glass. - layers of glass; - at least one data transponder embedded between the layers of glass, wherein the data transponder stores and processes data pertaining to vehicle configuration, vehicle ID/VIN Number, user ID, user payment credentials, user information, user customized/personalized settings, license details, service information, insurance details, website/URL, pre-defined location boundary information and location information; - a display unit comprising display elements disposed between layers of glass, communicating with the data transponder; - a data channel coupled to the data transponder, wherein the coupling is one of wired or wirelessly communication; and - a power channel which is wired or wirelessly integrated to the glazing; the power and data channel are coupled to a defogger and an antenna attached to a layer of glass.
A method for clock synchronization of protocols in a network comprising a base station, BS, the BS comprising a BS scheduler, a user equipment, UE, and a master clock as an Over-the-Top, OTT, IP service on uplink and downlink channels, the method comprising the steps of: a) enabling, by the network, one or more IP communication flows between interfaces of the master clock and the UE for IP time synchronization packets or packets with similar symmetrical delay and low jitter requirements; b) receiving at the UE and the BS packets of these IP communication flows; c) disabling, at the BS and the UE, the use of Carrier-Aggregation, CA, Coordinated MultiPoint, CoMP, and Dual Connectivity, DC, for data of these IP communication flows; d) setting, at the BS and the UE, the target radio Block Error Rate, BLER, of the uplink and downlink channels to a value equal to or less than that of the IP communication flow's target packet loss rate; e) calculating, at the BS and the UE, the radio packet size so as to ensure that each packet is transmitted over a single radio transmission; f) signaling, from the network to the BS scheduler, a signal indicating to bypass radio scheduler queues; g) receiving a signal at the BS scheduler to bypass radio scheduler queues; h) signaling, from the BS to the UE, a signal indicating to utilize grant-free transmission on the uplink channel; and i) receiving, at the UE, a signal indicating to utilize grant-free transmission on the uplink channel. a) enabling, by the network, one or more IP communication flows between interfaces of the master clock and the UE for IP time synchronization packets or packets with similar symmetrical delay and low jitter requirements; b) receiving at the UE and the BS packets of these IP communication flows; c) disabling, at the BS and the UE, the use of Carrier-Aggregation, CA, Coordinated MultiPoint, CoMP, and Dual Connectivity, DC, for data of these IP communication flows; d) setting, at the BS and the UE, the target radio Block Error Rate, BLER, of the uplink and downlink channels to a value equal to or less than that of the IP communication flow's target packet loss rate; e) calculating, at the BS and the UE, the radio packet size so as to ensure that each packet is transmitted over a single radio transmission; f) signaling, from the network to the BS scheduler, a signal indicating to bypass radio scheduler queues; g) receiving a signal at the BS scheduler to bypass radio scheduler queues; h) signaling, from the BS to the UE, a signal indicating to utilize grant-free transmission on the uplink channel; and i) receiving, at the UE, a signal indicating to utilize grant-free transmission on the uplink channel.
Motor vehicle headlight having at least two modules for generating light, wherein - the radiation patterns of the at least two modules superpose to form one radiation pattern of the motor vehicle headlight, - each module has a light source , containing at least four light-emitting diode chips , and a module optical unit , which is formed at least partially in the manner of one of the following optical elements: CPC, CEC, CHC, truncated pyramid or truncated cone optical unit, and - the module optical unit is embodied in the form of a reflector , having a light entry opening , a light exit opening and reflective side faces that connect the light entry opening to the light exit opening , or in the form of a solid body made from a transparent plastics material, having a light entry face , a light exit face and totally internally reflecting side faces that connect the light entry face to the light exit face , - the light entry opening or the light entry face is at most twice as large as the total radiation output coupling face of the light-emitting diode chips of the modules , characterized in that the radiation pattern of at least one of the modules is movable within a reference system that is assigned to the headlight , wherein the at least one movable module is mounted so as to be rotatable about three assigned main axes . - the radiation patterns of the at least two modules superpose to form one radiation pattern of the motor vehicle headlight, - each module has a light source , containing at least four light-emitting diode chips , and a module optical unit , which is formed at least partially in the manner of one of the following optical elements: CPC, CEC, CHC, truncated pyramid or truncated cone optical unit, and - the module optical unit is embodied in the form of a reflector , having a light entry opening , a light exit opening and reflective side faces that connect the light entry opening to the light exit opening , or in the form of a solid body made from a transparent plastics material, having a light entry face , a light exit face and totally internally reflecting side faces that connect the light entry face to the light exit face , - the light entry opening or the light entry face is at most twice as large as the total radiation output coupling face of the light-emitting diode chips of the modules , characterized in that the radiation pattern of at least one of the modules is movable within a reference system that is assigned to the headlight , wherein the at least one movable module is mounted so as to be rotatable about three assigned main axes .
A vacuum cleaner (100; 1000; 1550) comprising: a surface cleaning head (120; 320; 1020; 1552; 1600; 2100); a wand (110; 310; 1010; 1554) pivotally coupled to the surface cleaning head (120; 320; 1020; 1552; 1600; 2100); characterized in that the vacuum cleaner (100; 1000; 1550) further comprises a rotatable canister mount (150; 350; 450; 950; 1050; 1450; 1508; 1612) having a support (1520; 1620) through which at least a portion of the wand (110; 310; 1010; 1554) extends such that the rotatable canister mount (150; 350; 450; 950; 1050; 1450; 1508; 1612) rotates relative to the wand (110; 310; 1010; 1554) in response to the wand (110; 310; 1010; 1554) pivoting. a surface cleaning head (120; 320; 1020; 1552; 1600; 2100); a wand (110; 310; 1010; 1554) pivotally coupled to the surface cleaning head (120; 320; 1020; 1552; 1600; 2100); characterized in that the vacuum cleaner (100; 1000; 1550) further comprises a rotatable canister mount (150; 350; 450; 950; 1050; 1450; 1508; 1612) having a support (1520; 1620) through which at least a portion of the wand (110; 310; 1010; 1554) extends such that the rotatable canister mount (150; 350; 450; 950; 1050; 1450; 1508; 1612) rotates relative to the wand (110; 310; 1010; 1554) in response to the wand (110; 310; 1010; 1554) pivoting.