mhurhangee/ep-ind-claims huggingface dataset:
Gas purging device for metallurgical applications comprising a gas supply pipe and a gas purging element with the following characteristics: a) The gas purging element features a ceramic fireproof body with a first end and a second end, b) the second end is in the mounted position of the gas purging element in contact with the metal melt, c) the first end is covered by a metal coat, which features an opening to which a gas connection adapter connects, d) the gas purging element, the body and the gas supply adapter are designed in such a way that a treatment gas which is supplied via the gas supply adapter flows through the body and exits the body at the second end, e) the gas supply adapter is connected to a metal coat and at its free end (20.1) designed as a plug or socket of a push-fit connection for the connection to a corresponding socket or a corresponding plug of a the gas supply pipe, as well as f) a secure element with an inner screw thread, mechanically securing the push-/fit connection according to a cap nut together with a corresponding outer screw thread at the free end (20.1) of the gas supply adapter. a) The gas purging element features a ceramic fireproof body with a first end and a second end, b) the second end is in the mounted position of the gas purging element in contact with the metal melt, c) the first end is covered by a metal coat, which features an opening to which a gas connection adapter connects, d) the gas purging element, the body and the gas supply adapter are designed in such a way that a treatment gas which is supplied via the gas supply adapter flows through the body and exits the body at the second end, e) the gas supply adapter is connected to a metal coat and at its free end (20.1) designed as a plug or socket of a push-fit connection for the connection to a corresponding socket or a corresponding plug of a the gas supply pipe, as well as f) a secure element with an inner screw thread, mechanically securing the push-/fit connection according to a cap nut together with a corresponding outer screw thread at the free end (20.1) of the gas supply adapter.
A feeder-free xeno-free and integration-free method for dedifferentiating or reprogramming human somatic cells to produce feeder-free, xeno-free and integration-free, induced pluripotent stem cells comprising: transfecting the isolated human somatic cells with a composition comprising an effective amount of; a synthetic mRNA encoding reprogramming factor M 3 O, and synthetic mRNAs encoding reprogramming factors Sox2, Klf4, cMyc-T58A, Nanog, and Lin28; and wherein the composition is feeder-free and xeno-free, and is added to the isolated somatic cells with daily media changes using feeder-free and xeno-free media; whereby the somatic cell is reprogrammed or de-differentiated thereby producing feeder-free, xeno-free and integration-free induced pluripotent stem cells (iPSCs). transfecting the isolated human somatic cells with a composition comprising an effective amount of; a synthetic mRNA encoding reprogramming factor M 3 O, and synthetic mRNAs encoding reprogramming factors Sox2, Klf4, cMyc-T58A, Nanog, and Lin28; a synthetic mRNA encoding reprogramming factor M 3 O, and synthetic mRNAs encoding reprogramming factors Sox2, Klf4, cMyc-T58A, Nanog, and Lin28; and wherein the composition is feeder-free and xeno-free, and is added to the isolated somatic cells with daily media changes using feeder-free and xeno-free media; whereby the somatic cell is reprogrammed or de-differentiated thereby producing feeder-free, xeno-free and integration-free induced pluripotent stem cells (iPSCs).
A composition comprising trabectedin and an amino acid, wherein the weight ratio (w/w) of trabectedin to amino acid is 1:50 to 1:100; and wherein said amino acid is L-arginine.
Moveable sealing body of a valve, in particular a gas exchange valve of a combustion engine, said sealing body being exposed to hot gases, having a sealing region which is able to be applied to a valve seat ring, in which - at least one surface region of the sealing body exposed most strongly to the hot gases consists of at least one first and second material (1 or 2) respectively, up to a maximum of directly on the sealing region of this sealing body, - the second material has a higher thermal conductivity compared to the first material wherein - the second material is applied by means of a thermal spraying method, characterised in that - the second material comprises copper and/or silver and has a thickness between 0.2 and 1mm, - the second material is coated with at least one corrosion protection layer which comprises nickel and is up to 100μm thick - at least one surface region of the sealing body exposed most strongly to the hot gases consists of at least one first and second material (1 or 2) respectively, up to a maximum of directly on the sealing region of this sealing body, - the second material has a higher thermal conductivity compared to the first material - the second material is applied by means of a thermal spraying method, characterised in that - the second material comprises copper and/or silver and has a thickness between 0.2 and 1mm, - the second material is coated with at least one corrosion protection layer which comprises nickel and is up to 100μm thick
A stress-isolated pressure sensor comprising: a cavity bounded by a rim; a microelectromechanical system (MEMS) pressure sensing element configured to be suspended inside the cavity, the MEMS pressure sensing element comprising a thin diaphragm having piezoresistors, wherein the thin diaphragm is formed from a semiconductor material; a plurality of suspenders extending between the rim and the MEMS pressure sensing element and supporting the MEMS pressure sensing element in the cavity, wherein the suspenders support the thin diaphragm, characterized in that the suspenders are flexible and doped to be electrically conductive and formed from the same semiconductor material which comprises the thin diaphragm. a cavity bounded by a rim; a microelectromechanical system (MEMS) pressure sensing element configured to be suspended inside the cavity, the MEMS pressure sensing element comprising a thin diaphragm having piezoresistors, wherein the thin diaphragm is formed from a semiconductor material; a plurality of suspenders extending between the rim and the MEMS pressure sensing element and supporting the MEMS pressure sensing element in the cavity, wherein the suspenders support the thin diaphragm, characterized in that the suspenders are flexible and doped to be electrically conductive and formed from the same semiconductor material which comprises the thin diaphragm.
A composition comprising polyethylene-glycol functionalized mesoporous oxide nanoparticles having an average size of 15 nm or less as measured by transmission electron microscopy, wherein at least 90% of the nanoparticles are within 3 nm of the average size, and wherein at least a portion of the non-pore surface is at least partially functionalized with polyethylene glycol groups.
A computer-implemented method for analyzing a product stream of a chemical reaction, comprising: withdrawing from a reactor, a portion of the product stream of the chemical reaction, the portion of the product stream having a volume of less than about 200 μL; mixing the portion of the product stream with a diluent to produce a sample; transferring the sample to a liquid chromatography device; and developing, via the liquid chromatography device, a measured chemical profile of the sample for process monitoring or real time decision-making. withdrawing from a reactor, a portion of the product stream of the chemical reaction, the portion of the product stream having a volume of less than about 200 μL; mixing the portion of the product stream with a diluent to produce a sample; transferring the sample to a liquid chromatography device; and developing, via the liquid chromatography device, a measured chemical profile of the sample for process monitoring or real time decision-making.
A light for vehicles having a plurality of light units (2, 2', 2") which each have a light-emitting light source on the one hand and light guiding means (3, 3', 3") on the other hand for generating a predetermined light distribution, wherein optical axes of the light units (2, 2', 2") extend parallel to each other, wherein a partial main light beam is emitted in a main beam direction parallel to the optical axis and wherein lateral light deflecting means arranged in the main light beam direction before the light guiding means (3, 3") are assigned to the light units (2, 2', 2"), in order to deflect a partial light beam in a lateral direction transversely to the optical axis, characterized in that the lateral light deflecting means extend in extension of an edge of the light guiding means (3, 3") and are formed by a plurality of rear reflector-like optical elements which extend projecting towards a front boundary plane of the light guiding means (3, 3") which is located vertical to the optical axis outside the front boundary edge of the light guiding means (3, 3"), and which each have a number of optical surfaces (15, 15', 15", 15"') located at an angle to each other, by means of which the partial light beam is deflected in a lateral direction.
An apparatus for forming graphical images on a surface, comprising; a set of light emitting diodes (104, 105, 106) for emitting a non-homogeneous non-polarized light beam comprising axial and conical radiation components, wherein the set at least comprises one of a red, green and blue light emitting diode (104, 105, 106); a toggle for selecting a specific light emitting diode (104, 105, 106) from the set of light emitting diodes (104, 105, 106); a polarization block consisting of a truncated cone shaped collimating optical element for collecting and converting the non-homogeneous non-polarized light beam to a homogeneous non-polarized light beam, a broad band polarization divider (109, 119) for dividing the homogeneous non-polarized light into a first and a second linearly polarized light beam that are orthogonally polarized to each, a broadband semi-wave plate for rotating the polarization plane of the first beam by 90 degrees, a shifting bi-prism and light beam coupler (111, 112) for shifting the images of imaginary sources of both beams to the optical axis of an objective and for coupling the first and second beam along the optical axis; the objective comprising a set of projection lenses (113, 114, 115, 116) for focusing the polarized light to form an essentially round spot, wherein the set of projection lenses (113, 114, 115, 116) is made of at least one of a two, three, four, five and six lenses; and a power supply block for supplying energy to the apparatus.
A protection switching method, comprising: receiving, by a sink node of a protection group, an instruction message that comprises a fault confirmation time, wherein the instruction message is used to instruct to perform protection switching on the sink node of the protection group according to the fault confirmation time; when it is detected that a first path is faulty, or when it is detected that a fault on a second path disappears, starting, by the sink node of the protection group, a timer whose duration is the fault confirmation time, wherein the first path is a path currently used by the sink node of the protection group to selectively receive a service, and the second path is not a path currently used by the sink node of the protection group to selectively receive a service, wherein after the timer whose duration is the fault confirmation time is started and before the timer expires, the sink node does not detect the statuses of the first path and the second path; when the sink node of the protection group determines that the timer expires, re-detecting statuses of the first path and the second path; and determining, by the sink node of the protection group, whether to perform protection switching according to a re-detection result of the first path and the second path; receiving, by a sink node of a protection group, an instruction message that comprises a fault confirmation time, wherein the instruction message is used to instruct to perform protection switching on the sink node of the protection group according to the fault confirmation time; when it is detected that a first path is faulty, or when it is detected that a fault on a second path disappears, starting, by the sink node of the protection group, a timer whose duration is the fault confirmation time, wherein the first path is a path currently used by the sink node of the protection group to selectively receive a service, and the second path is not a path currently used by the sink node of the protection group to selectively receive a service, wherein after the timer whose duration is the fault confirmation time is started and before the timer expires, the sink node does not detect the statuses of the first path and the second path; when the sink node of the protection group determines that the timer expires, re-detecting statuses of the first path and the second path; and determining, by the sink node of the protection group, whether to perform protection switching according to a re-detection result of the first path and the second path;
A lower-torso garment (100; 200) comprising: at least one pant leg (102, 104) having a proximal end, a distal end, an inner-facing surface, and an outer-facing surface, the distal end of the at least one pant leg (102, 104) comprising: a first free fabric edge extending towards the proximal end of the at least one pant leg (102, 104), a second free fabric edge extending towards the proximal end of the at least one pant leg (102, 104), a first textile comprising one of a micro hook material or a micro loop material located on the outer-facing surface of the distal end of the at least one pant leg (102, 104) adjacent to the first free fabric edge, and a second textile comprising one of a micro hook material or a micro loop material complementary to the micro hook material or the micro loop material of the first textile, the second textile located on the inner-facing surface of the distal end of the at least one pant leg (102, 104) adjacent to the second free fabric edge, wherein the second textile is configured to releasably mate with at least a portion of the first textile, characterized in that the first textile further comprises a distal edge and a first textile boundary, wherein a width of the first textile measured from the first free fabric edge to the first textile boundary increases as the first textile boundary extends distally toward the distal edge. a first free fabric edge extending towards the proximal end of the at least one pant leg (102, 104), a second free fabric edge extending towards the proximal end of the at least one pant leg (102, 104), a first textile comprising one of a micro hook material or a micro loop material located on the outer-facing surface of the distal end of the at least one pant leg (102, 104) adjacent to the first free fabric edge, and a second textile comprising one of a micro hook material or a micro loop material complementary to the micro hook material or the micro loop material of the first textile, the second textile located on the inner-facing surface of the distal end of the at least one pant leg (102, 104) adjacent to the second free fabric edge, wherein the second textile is configured to releasably mate with at least a portion of the first textile, characterized in that the first textile further comprises a distal edge and a first textile boundary, wherein a width of the first textile measured from the first free fabric edge to the first textile boundary increases as the first textile boundary extends distally toward the distal edge.
A composition for delivering a therapeutic or diagnostic agent to a disease site in a mammal comprising a therapeutically or diagnostically effective amount of a pharmaceutical composition comprising the said therapeutic or diagnostic agent coupled to a SPARC-binding-polyeptide and a pharmaceutically acceptable carrier, wherein the SBP comprises SEQ ID NO: 1 or 2.
A monitoring device for a lift cabin having a sensor unit and a switching unit, wherein the switching unit can be actuated by the sensor unit, wherein a driving wheel that rotates when the lift cabin is in motion and a coupling unit are provided, wherein the sensor unit can be at least indirectly coupled with the driving wheel by means of the coupling unit, wherein the sensor unit is designed as a position sensor and wherein the sensor unit, after a specified distance of travel (sD) of the lift cabin, actuates the switching unit when the sensor unit is at least indirectly coupled with the driving wheel by means of the coupling unit, characterised in that the sensor unit can be axially moved towards and away from the driving wheel by means of the coupling unit and can at least indirectly be coupled with the driving wheel by means of the axial advance movement.
An electronic device comprising: an audio input module configured to receive a speech of a user as a voice input; an audio output module configured to output content corresponding to the voice input; and a processor configured to determine a speed of movement of the user based on a volume of the speech, which is obtained from an analysis of the voice input; and adjust an output speed of the content based on the speed of movement of the user. an audio input module configured to receive a speech of a user as a voice input; an audio output module configured to output content corresponding to the voice input; and a processor configured to determine a speed of movement of the user based on a volume of the speech, which is obtained from an analysis of the voice input; and adjust an output speed of the content based on the speed of movement of the user.
An inertial igniter for igniting a thermal battery upon a predetermined acceleration event, the inertial igniter comprising: a base having a first projection; a striker mass rotatably connected to the base through a rotatable connection, the striker mass having a second projection aligned with the first projection such that when the striker mass is rotated towards the base, the first projection impacts the second projection; and a rotation prevention mechanism for preventing impact of the first and second projections unless the predetermined acceleration event is experienced; wherein the rotation prevention mechanism comprises a retaining member movably disposed at least partially in the striker mass and; characterised in that the rotation prevention mechanism further comprises a blocking member movably disposed in a blocking position for blocking the retaining member from moving from the striker mass unless the predetermined acceleration event is experienced. a base having a first projection; a striker mass rotatably connected to the base through a rotatable connection, the striker mass having a second projection aligned with the first projection such that when the striker mass is rotated towards the base, the first projection impacts the second projection; and a rotation prevention mechanism for preventing impact of the first and second projections unless the predetermined acceleration event is experienced;
A system for guiding an instrument, the system comprising: a frame; and a bearing assembly supported by the frame and including: an outer tubular member supported by the frame and including a proximal end and a distal end, a bearing at least partially disposed within the proximal end of the outer tubular member, a guide member at least partially inserted into the distal end of the outer tubular member, and a channel for receiving the instrument, the channel extending through the outer tubular member, the bearing and the guide member, wherein the channel is defined by surfaces of each of the outer tubular member, the bearing and the guide member. a frame; and a bearing assembly supported by the frame and including: an outer tubular member supported by the frame and including a proximal end and a distal end, a bearing at least partially disposed within the proximal end of the outer tubular member, a guide member at least partially inserted into the distal end of the outer tubular member, and a channel for receiving the instrument, the channel extending through the outer tubular member, the bearing and the guide member, wherein the channel is defined by surfaces of each of the outer tubular member, the bearing and the guide member. an outer tubular member supported by the frame and including a proximal end and a distal end, a bearing at least partially disposed within the proximal end of the outer tubular member, a guide member at least partially inserted into the distal end of the outer tubular member, and a channel for receiving the instrument, the channel extending through the outer tubular member, the bearing and the guide member, wherein the channel is defined by surfaces of each of the outer tubular member, the bearing and the guide member.
A method of manufacturing a shoe upper including an upper member including a reinforced portion, the method comprising: preparing the upper member; preparing thermoplastic resin powder to be formed as a reinforcing portion; three-dimensionally forming the upper member; and pre-heating the three-dimensionally formed upper member such that a portion-to-be-reinforced of the three-dimensionally formed upper member is heated to a temperature equal to or higher than a melting point of the thermoplastic resin powder; adhering the thermoplastic resin powder to the upper member so as to at least cover the portion-to-be-reinforced of the pre-heated upper member; further heating the upper member to which the thermoplastic resin powder is adhered, and melting the thermoplastic resin powder adhered to the upper member; and hardening the melted thermoplastic resin powder to firmly adhere the reinforcing portion to the upper member. an upper member including a reinforced portion, the method comprising: preparing the upper member; preparing thermoplastic resin powder to be formed as a reinforcing portion; three-dimensionally forming the upper member; and pre-heating the three-dimensionally formed upper member such that a portion-to-be-reinforced of the three-dimensionally formed upper member is heated to a temperature equal to or higher than a melting point of the thermoplastic resin powder; adhering the thermoplastic resin powder to the upper member so as to at least cover the portion-to-be-reinforced of the pre-heated upper member; further heating the upper member to which the thermoplastic resin powder is adhered, and melting the thermoplastic resin powder adhered to the upper member; and hardening the melted thermoplastic resin powder to firmly adhere the reinforcing portion to the upper member. preparing the upper member; preparing thermoplastic resin powder to be formed as a reinforcing portion; three-dimensionally forming the upper member; and pre-heating the three-dimensionally formed upper member such that a portion-to-be-reinforced of the three-dimensionally formed upper member is heated to a temperature equal to or higher than a melting point of the thermoplastic resin powder; adhering the thermoplastic resin powder to the upper member so as to at least cover the portion-to-be-reinforced of the pre-heated upper member; further heating the upper member to which the thermoplastic resin powder is adhered, and melting the thermoplastic resin powder adhered to the upper member; and hardening the melted thermoplastic resin powder to firmly adhere the reinforcing portion to the upper member.
A radiation-sterilizable disposable bioreactor system for use in a biopharmaceutical process, having an RFID tag and a fundamentally rewritable memory, in which data regarding an integrity check of the disposable bioreactor are stored, characterized in that the memory has a free, writable region and a blocked region, which is no longer writable.