mhurhangee/ep-ind-claims huggingface dataset:
An instrumented bolt with a shank to which a sensor arrangement is attached, and with an axial channel in the shank, characterized in that the axial channel opens into an oblong hole which extends transversely to the axial channel, the oblong hole having two ends (14, 15) in the axial direction, at least one of which is formed to be arched with a changing curvature.
A method carried out by an apparatus implementing a RAT Interface Function and comprising: receiving a message from a User Equipment, UE, the message requesting access by the UE to a core network and requesting access to one or more services, the message comprising a temporary identifier associated with the UE and one or more service descriptors, each service descriptor identifying a respective one of the services to which the UE is requesting access; using the temporary identifier to determine an authentication server; communicating with the authentication server to authenticate the UE for access to the network; determining, based on the one or more service descriptors in the message, which of the requested services is available to the UE via one or more network slices; and sending, to the UE, a response message comprising an indication of whether or not connection to the network is permitted, a new temporary identifier, and a list of service descriptors identifying which services the UE is able to access. receiving a message from a User Equipment, UE, the message requesting access by the UE to a core network and requesting access to one or more services, the message comprising a temporary identifier associated with the UE and one or more service descriptors, each service descriptor identifying a respective one of the services to which the UE is requesting access; using the temporary identifier to determine an authentication server; communicating with the authentication server to authenticate the UE for access to the network; determining, based on the one or more service descriptors in the message, which of the requested services is available to the UE via one or more network slices; and sending, to the UE, a response message comprising an indication of whether or not connection to the network is permitted, a new temporary identifier, and a list of service descriptors identifying which services the UE is able to access.
Seal strip for sealing an interspace between a first and a second part, in particular for windows and doors having an essentially constant cross section along a profile track, wherein the seal strip has a first functional area formed by EPDM sponge rubber in a cutting plane lying transversely to the profile track, and wherein the seal strip has a second EPDM sponge rubber insulating area wherein the first EPDM sponge rubber and the second EPDM sponge rubber have different characteristics. having an essentially constant cross section along a profile track, wherein the seal strip has a first functional area formed by EPDM sponge rubber in a cutting plane lying transversely to the profile track, and wherein the seal strip has a second EPDM sponge rubber insulating area wherein the first EPDM sponge rubber and the second EPDM sponge rubber have different characteristics.
Air cleaning device, in particular for cooking vapors, with a housing, comprising at least one intake opening arranged in an upper side of the housing, a collecting tray arranged in an interior of the housing, at least one fan wheel arranged inside the collecting tray, which fan wheel has a receiving recess with an inner circumferential surface and a base surface, and at least one housing outlet opening arranged in at least one side part (28.1, 28.2, 29.1, 29.2) of the housing, further comprising at least one motor arranged on a bottom part of the housing and below the fan wheel and having a motor shaft with an axial end surface and an outer circumferential surface, wherein the motor shaft can be arranged in the receiving recess of the fan wheel, characterized in that at least near or adjacent to the base surface of the receiving recess, an inner peripheral portion of the inner circumferential surface is conical and correspondingly near or adjacent to the axial end surface of the motor shaft, at least an outer circumferential region of the outer circumferential surface of the motor shaft is conically shaped, so that the inner circumferential surface of the fan wheel and the outer circumferential surface of the motor shaft abut each other at least in the inner circumferential portion and the corresponding outer circumferential region, wherein in a central region adjacent to the inner circumferential region of the inner circumferential surface the receiving recess is formed cylindrically, wherein the fan wheel and the motor shaft are connected to each other via an engagement connecting device wherein at least one rear engagement projection is formed in the cylindrical central region of the receiving recess, and wherein the inner circumferential surface in the conically shaped inner circumferential region forms a cone angle α with the cylindrically formed central region in a range from about 3° to about 15°.
Use of a ligand which binds to an FKBP ligand-binding domain of a chimeric protein, resulting in oligomerization of the chimeric protein, in the manufacture of a medicament for therapy of a condition, selected from a hyperproliferative disease or an infectious disease, by modulating an immune response, to activate a transfected or transduced antigen-presenting cell in vivo, wherein a) the antigen-presenting cell has been transfected or transduced with an expression vector encoding the chimeric protein; and b) said expression vector comprises a polynucleotide promoter sequence, a polynucleotide sequence encoding a membrane targeting region, a polynucleotide sequence encoding an FKBP ligand-binding domain capable of binding to the ligand, and a polynucleotide sequence encoding a CD40 cytoplasmic region polypeptide that does not have a functional extracellular domain, all operatively linked. a) the antigen-presenting cell has been transfected or transduced with an expression vector encoding the chimeric protein; and b) said expression vector comprises a polynucleotide promoter sequence, a polynucleotide sequence encoding a membrane targeting region, a polynucleotide sequence encoding an FKBP ligand-binding domain capable of binding to the ligand, and a polynucleotide sequence encoding a CD40 cytoplasmic region polypeptide that does not have a functional extracellular domain, all operatively linked.
A method for the production of polymeric scaffold materials and/or scaffolds for tissue and/or organ engineering, said method comprising the addition of at least one anchoring unit for a labelling agent, to at least one scaffold material and/or to at least one scaffold, and the method further comprising the step of binding at least one labelling agent to at least one anchoring unit for a labelling agent, wherein the step of binding at least one labelling agent to at least one anchoring unit is carried out by means of a bio-orthogonal chemical reaction.
A single-axis teeter-totter MEMS accelerometer (100, 200), comprising: a substrate; a proof mass (106, 206) suspended above the substrate; and a plurality of anchors (108a, 108b, 208a, 208b, 208c, 208d, 208e) arranged in-line with each other parallel to a rotation axis (118, 218) of the proof mass or on the rotation axis of the proof mass, and coupling the proof mass to the substrate, wherein each of at least two anchors of the plurality of anchors is coupled to an interior edge of the proof mass by two respective, in-line torsional springs (120a, 120b, 120c, 120d, 220a, 220b, 220c, 220d, 220e, 220f, 220g, 220h, 220i, 220j), characterized in that the in-line torsion springs are arranged on opposite sides of the anchor. a substrate; a proof mass (106, 206) suspended above the substrate; and a plurality of anchors (108a, 108b, 208a, 208b, 208c, 208d, 208e) arranged in-line with each other parallel to a rotation axis (118, 218) of the proof mass or on the rotation axis of the proof mass, and coupling the proof mass to the substrate, wherein each of at least two anchors of the plurality of anchors is coupled to an interior edge of the proof mass by two respective, in-line torsional springs (120a, 120b, 120c, 120d, 220a, 220b, 220c, 220d, 220e, 220f, 220g, 220h, 220i, 220j), characterized in that the in-line torsion springs are arranged on opposite sides of the anchor.
A camera actuator, comprising: an actuator base; an autofocus voice coil motor, wherein the autofocus voice coil motor comprises a lens carrier moveably mounted to the actuator base, a plurality of shared magnets mounted to the actuator base, an autofocus coil fixedly mounted to the lens carrier for producing forces in a direction of an optical axis of one or more lenses of the lens carrier; and an optical image stabilization voice coil motor configured to move an image sensor, wherein the optical image stabilization voice coil motor comprises: an image sensor carrier moveably mounted to the actuator base, the image sensor carrier coupled to the image sensor; characterized by a plurality of optical image stabilization coils mounted to the image sensor carrier within the magnetic fields of the shared magnets, for producing forces for moving the image sensor carrier in a plurality of directions orthogonal to the optical axis. an actuator base; an autofocus voice coil motor, wherein the autofocus voice coil motor comprises a lens carrier moveably mounted to the actuator base, a plurality of shared magnets mounted to the actuator base, an autofocus coil fixedly mounted to the lens carrier for producing forces in a direction of an optical axis of one or more lenses of the lens carrier; and a lens carrier moveably mounted to the actuator base, a plurality of shared magnets mounted to the actuator base, an autofocus coil fixedly mounted to the lens carrier for producing forces in a direction of an optical axis of one or more lenses of the lens carrier; and an optical image stabilization voice coil motor configured to move an image sensor, wherein the optical image stabilization voice coil motor comprises: an image sensor carrier moveably mounted to the actuator base, the image sensor carrier coupled to the image sensor; characterized by a plurality of optical image stabilization coils mounted to the image sensor carrier within the magnetic fields of the shared magnets, for producing forces for moving the image sensor carrier in a plurality of directions orthogonal to the optical axis. an image sensor carrier moveably mounted to the actuator base, the image sensor carrier coupled to the image sensor; characterized by a plurality of optical image stabilization coils mounted to the image sensor carrier within the magnetic fields of the shared magnets, for producing forces for moving the image sensor carrier in a plurality of directions orthogonal to the optical axis.
An optical system (1, 20) comprising a housing with an opening extending in an axial direction (z) and a membrane arranged across the opening, wherein the membrane separates the opening into a first upper and a second lower chamber which are filled with an in general constant amount of a fluid, whereby the membrane comprises an optically active (6.1) and an optically passive section (6.2) and at least one actuator (11, 12) to influence the geometry of the optically active section of the membrane (6.1) by relocation of the fluid, thereby changing optical characteristics of the optical system (1, 20), wherein the optical system further comprises an annular holding frame that comprises openings which allow exchange of the fluid between a first inner (8.1) and a second outer part (8.2) of the lower chamber characterized in that the at least one actuator is configured to displace the membrane and comprises a first upper and a second lower electrode that are arranged opposite to each other annularly encompassing the optically passive section (6.2) of the membrane.
Crimping pliers, in particular for crimping cable lugs or the like onto electrical conductors, comprising two crimping jaws (2, 3) which can be swivelled towards one another, wherein in each crimping jaw (2, 3) a crimping matrix (23, 24) configured with a plurality of different crimping dies (27, 28) over a circumference is rotatably mounted with respect to an axis of rotation (y), characterized in that the crimping matrices (23, 24) are permanently coupled to each other via the gearing independently of a swivel position of the crimping jaws (2, 3).
A device for controlling power, the device comprising: a pass element adapted to conduct a charge current; a power loop control circuit including a soft start controller and a soft start component, the soft start controller being adapted to produce a control signal corresponding to incremental steps of the charge current through the pass element and the soft start component being adapted to manage the charge current in incremental steps up to a current limit in accordance with the control signal, the current limit being associated with a predetermined power limit value of power dissipated across the pass element, the soft start controller including a comparator and logic circuitry, the comparator being adapted to produce a logic signal for prompting the logic circuitry to increase and decrease the incremental steps, the logic circuitry being adapted to adjust the control signal when increasing and decreasing the incremental steps; and a temperature sensor operatively coupled to the soft start controller and adapted to produce a sensor signal associated with temperature in response to which the comparator produces the logic signal. a pass element adapted to conduct a charge current; a power loop control circuit including a soft start controller and a soft start component, the soft start controller being adapted to produce a control signal corresponding to incremental steps of the charge current through the pass element and the soft start component being adapted to manage the charge current in incremental steps up to a current limit in accordance with the control signal, the current limit being associated with a predetermined power limit value of power dissipated across the pass element, the soft start controller including a comparator and logic circuitry, the comparator being adapted to produce a logic signal for prompting the logic circuitry to increase and decrease the incremental steps, the logic circuitry being adapted to adjust the control signal when increasing and decreasing the incremental steps; and a temperature sensor operatively coupled to the soft start controller and adapted to produce a sensor signal associated with temperature in response to which the comparator produces the logic signal.
A method of reducing a number of particles present on a surface of a coating or a number of particles released into a pharmaceutical composition contained in a medical injection device, the device comprising a barrel having a coated inner surface, a stopper in gliding engagement with the barrel, the pharmaceutical composition being in contact with the inner surface of the barrel, said method characterised in that, it further comprises, prior to disposing the pharmaceutical composition within the device, preparing the coating by: coating the inner surface of the barrel with a layer of polydimethylsiloxane (PDMS) with a viscosity between 900 and 1200 centistoke, said layer having a thickness between 90 and 400 nm; and exposing the polydimethylsiloxane layer to a plasma treatment, thereby reducing the number of particles present on the inner surface of the coating or reducing the number of particles released into the pharmaceutical composition contained in the medical injection device as compared to a device comprising a barrel coated with PDMS that is not plasma treated. coating the inner surface of the barrel with a layer of polydimethylsiloxane (PDMS) with a viscosity between 900 and 1200 centistoke, said layer having a thickness between 90 and 400 nm; and exposing the polydimethylsiloxane layer to a plasma treatment, thereby reducing the number of particles present on the inner surface of the coating or reducing the number of particles released into the pharmaceutical composition contained in the medical injection device as compared to a device comprising a barrel coated with PDMS that is not plasma treated.
A method for transmitting a random access message, applicable to a two-step random access procedure, the method comprising: configuring (301; S401), by a base station, a specified power difference range for a terminal; and receiving (302; S403), by the base station, a first random access message sent by the terminal based on a first transmission power, wherein the first transmission power comprises a first transmitting power of a Physical Random Access Channel, PRACH, of the first random access message and a second transmitting power of a Physical Uplink Shared Channel, PUSCH, of the first random access message, wherein a difference between the first transmitting power and the second transmitting power is defined by the terminal within the specified power difference range; wherein configuring (301; S401) the specified power difference range for the terminal comprises: sending, by the base station, a system message indicating the specified power difference range through a physical broadcast channel. configuring (301; S401), by a base station, a specified power difference range for a terminal; and receiving (302; S403), by the base station, a first random access message sent by the terminal based on a first transmission power, wherein the first transmission power comprises a first transmitting power of a Physical Random Access Channel, PRACH, of the first random access message and a second transmitting power of a Physical Uplink Shared Channel, PUSCH, of the first random access message, wherein a difference between the first transmitting power and the second transmitting power is defined by the terminal within the specified power difference range; wherein configuring (301; S401) the specified power difference range for the terminal comprises: sending, by the base station, a system message indicating the specified power difference range through a physical broadcast channel.
A method for automatic pressure level adaptation enabling energy saving in a lifting process (W c) in a vacuum system operating a vacuum lifter for transportation of objects, said vacuum system comprises a vacuum generator arrangement driven by a compressed air flow, wherein the vacuum generator arrangement via a vacuum chamber being part of the vacuum system is arranged to be brought in flow connection with the vacuum lifter, in order to supply vacuum to the vacuum lifter in result of the compressed air flow, wherein a pressure sensor for monitoring a system-pressure p (t) over time is arranged inside the vacuum chamber; and a vacuum system controller possibly being electrically connected to a main controller, wherein the vacuum system controller is arranged to control and communicate with the vacuum generator arrangement and communicate with the pressure sensor, and the vacuum system controller is arranged to monitor the measured system-pressure p - (t) over a number of monitored points, comprising the step of adjusting a required vacuum level (P -) during a complete lifting process (W c) required to hold on to the object for each monitored point (P mon) during the complete lifting process (Wc), characterized in additionally comprising the step of measuring an acceleration (O acc) of the object being moved by the vacuum lifter.
A leg protector for protecting the lower leg of a sports player against injury, the leg protector comprising: a sock worn, in use, over the player's lower leg; and a plurality of protection pads (10, 20, 30), each comprising a rear surface that is detachably engageable with the worn sock so that, when engaged, the rear surface faces inward towards the player's lower leg and a corresponding front surface faces out away from the player's lower leg; and each of the plurality of protection pads (10, 20, 30) being arranged for placement at a position that protects a respective area of the player's lower leg, the plurality of protection pads (10, 20 30) comprising at least one of: a first protection pad being shaped and adapted to protect an upper shin area of the player's lower leg; a second protection pad being shaped and adapted to protect a lower shin and ankle area of the player's lower leg; and a third protection pad being shaped and adapted to protect a metatarsal area of the player's lower leg; wherein the first and second protection pads (10, 20) have complementarily-shaped mating portions enabling the first and second pads (10, 20) to be fitted together on the sock so as to substantially cover and protect the shin area of the player's lower leg. a sock worn, in use, over the player's lower leg; and a plurality of protection pads (10, 20, 30), each comprising a rear surface that is detachably engageable with the worn sock so that, when engaged, the rear surface faces inward towards the player's lower leg and a corresponding front surface faces out away from the player's lower leg; and each of the plurality of protection pads (10, 20, 30) being arranged for placement at a position that protects a respective area of the player's lower leg, the plurality of protection pads (10, 20 30) comprising at least one of: a first protection pad being shaped and adapted to protect an upper shin area of the player's lower leg; a second protection pad being shaped and adapted to protect a lower shin and ankle area of the player's lower leg; and a third protection pad being shaped and adapted to protect a metatarsal area of the player's lower leg; a first protection pad being shaped and adapted to protect an upper shin area of the player's lower leg; a second protection pad being shaped and adapted to protect a lower shin and ankle area of the player's lower leg; and a third protection pad being shaped and adapted to protect a metatarsal area of the player's lower leg;