mhurhangee/ep-ind-claims huggingface dataset:
Drilling device, in particular core drill, having a drill basic body and a conveying helix which runs helically around the drill basic body, wherein the conveying helix is subdivided into a plurality of conveying helix segments arranged next to one another, characterized in that the conveying helix is manufactured from a plastics material, the conveying helix segments each have a metal insert part situated externally with respect to a radial direction of the drilling device, and the metal insert part is at least partially overmolded with material of the respective conveying helix segment, characterized in that the conveying helix segments are connected to the drill basic body in a form-fitting manner, and the drill basic body has an engagement portion, specifically an outer hexagon, and the conveying helix segments each have a mating engagement portion, specifically an inner hexagon, which engages in the engagement portion in a form-fitting manner.
A brazing material for active brazing, especially for active brazing a metallization to a ceramic-comprising support layer, the brazing material comprising copper and being silver-free, characterized in that the brazing material essentially consists of, - 64 wt.% copper, 34 wt.% indium and 2 wt.% titanium, - 69 wt% copper, 13 wt% tin, 16 wt% indium and 2 wt% titanium, - 66 wt% copper, 16 wt% tin, 16 wt% manganese, and 2 wt% titanium, - 66 wt.% copper, 16 wt.% indium, 16 wt.% manganese and 2 wt.% titanium or - 69 wt.% copper, 12 wt.% tin, 7 wt.% manganese, 10 wt.% indium and 2 wt.% titanium, with the balance consisting of inevitable impurities of less than 0.5 wt.%. - 64 wt.% copper, 34 wt.% indium and 2 wt.% titanium, - 69 wt% copper, 13 wt% tin, 16 wt% indium and 2 wt% titanium, - 66 wt% copper, 16 wt% tin, 16 wt% manganese, and 2 wt% titanium, - 66 wt.% copper, 16 wt.% indium, 16 wt.% manganese and 2 wt.% titanium or - 69 wt.% copper, 12 wt.% tin, 7 wt.% manganese, 10 wt.% indium and 2 wt.% titanium,
A device for activation or cleaning of filter tube wells with a filter tube comprising a first and a second volume body (7, 8), which each extend alongside the longitudinal well axis, with their outer diameter being adjusted to the inner diameter of the filter tube, and on their outer circumferential surface being formed at least radially in a flexible manner relative to the longitudinal well axis in order that a sealing effect is achieved between the outer circumferential surfaces of the respective volume bodies (7, 8) and the inner wall of the filter tube, with at least one of the volume bodies (7, 8) comprising a rigid cylindrical body, which with its outer diameter is formed slightly smaller than the inner diameter of the filter tube, with a flexible layer being arranged on an outer circumferential surface of the cylindrical body, with the outer diameter of the flexible layer being slightly larger than the inner diameter of the filter tube, a removal space being formed between the first and second volume body (7, 8) and the inner wall of the filter tube, which removal space is hydraulically connectable with a pumping device, and the height (h) of which being determined by the distance of the two volume bodies (7, 8) to each other, with the longitudinal, extension of the respective volume bodies (7, 8) in the direction of the longitudinal axis of the device corresponding to the height (h) of the removal space, characterised in that the flexible layer is made of a foam material, in particular an open-cell foam material or a foam rubber.
A butterfly valve assembly comprising: a butterfly element configured to control fluid flow through a main conduit; and a butterfly controller configured to control the butterfly element, comprising a first chamber for receiving fluid at a first pressure, a second chamber for receiving fluid at a second pressure, and an actuator responsive to the first pressure and the second pressure; and a relief valve arranged to regulate the first pressure in the first chamber within a predetermined pressure range, wherein the relief valve comprises an adjustment mechanism for adjusting the predetermined pressure range; characterised by a shut-off valve actuated by a solenoid between a first position and a second position and arranged to control the second pressure of fluid in the second chamber of the butterfly controller by switching between supplying fluid to the second chamber from (i) a line to the main conduit downstream of the butterfly element, or (ii) a line containing fluid at supply pressure, the shut-off valve thereby being operable to move the butterfly element to its fully closed position. a butterfly element configured to control fluid flow through a main conduit; and a butterfly controller configured to control the butterfly element, comprising a first chamber for receiving fluid at a first pressure, a second chamber for receiving fluid at a second pressure, and an actuator responsive to the first pressure and the second pressure; and a relief valve arranged to regulate the first pressure in the first chamber within a predetermined pressure range, wherein the relief valve comprises an adjustment mechanism for adjusting the predetermined pressure range; characterised by a shut-off valve actuated by a solenoid between a first position and a second position and arranged to control the second pressure of fluid in the second chamber of the butterfly controller by switching between supplying fluid to the second chamber from (i) a line to the main conduit downstream of the butterfly element, or (ii) a line containing fluid at supply pressure, the shut-off valve thereby being operable to move the butterfly element to its fully closed position.
Allergen preparation comprising an allergen in an oil-in-water emulsion, the allergen preparation comprising squalene, water and one or more surfactants, wherein the allergen is a hydrolyzed allergen extract, obtainable by a method comprising the steps of a) extracting a natural source of allergens comprising allergenic proteins to form an extract, b) purifying of said extract to remove non-protein components to form a purified extract c) denaturing said purified extract to form a purified denatured extract, d) refining the purified denatured extract to remove impurities to form a refined denatured extract, e) hydrolyzing a denatured allergen to form an allergen hydrolysate, f) optionally purifying said allergen hydrolysate to remove peptides with a molecular weight above 10,000 Da and below 1,000 Da in order to obtain a purified hydrolysate where 70%, more preferably 80% of the peptides are between 10,000 Da and 1,000 Da said purified denatured extract comprising proteins, wherein the most abundant (w/w) proteins, forming together at least 60% (w/w) of all proteins, are at least two proteins, and all proteins represent at least 60% (w/w) of the dry weight of the purified denatured extract. a) extracting a natural source of allergens comprising allergenic proteins to form an extract, b) purifying of said extract to remove non-protein components to form a purified extract c) denaturing said purified extract to form a purified denatured extract, d) refining the purified denatured extract to remove impurities to form a refined denatured extract, e) hydrolyzing a denatured allergen to form an allergen hydrolysate, f) optionally purifying said allergen hydrolysate to remove peptides with a molecular weight above 10,000 Da and below 1,000 Da in order to obtain a purified hydrolysate where 70%, more preferably 80% of the peptides are between 10,000 Da and 1,000 Da
Method for controlling the restart function of an automatic start/stop system for a vehicle combustion engine by means of an alternator-starter comprising a power electronic module (1, 3) and control means (6, 8), said control means including a control module controlling said power electronic module (1, 3) and an electronic control unit, said control module exchanging information representative of a state of operation of said vehicle originating from sensors (9, 15) with said electronic control unit, said method being of the type of those in which said control means (6, 8) perform a first estimation of a first current temperature (Th_Leadframe) of said power electronic module (1, 3) by means of said sensors (9, 15) and determine the inhibiting of said restart function when said first estimation of said first current temperature (Th_Leadframe) is above a first predetermined temperature (Th_InverterMax), and said method being characterized in that said control means (6, 8) perform said first estimation of said first current temperature (Th_Leadframe) from at least a measurement of a real temperature (TChip) of said control module and from a value of a rotation speed (RotorSpeed) of said alternator-starter when said alternator-starter is operating in starter mode, and in that said control means (6, 8) also determine the inhibiting of said restart function when a second current temperature (Th_Stator) of a stator of said alternator-starter is above a second predetermined temperature (Th_StatorOverheating).
A fuel cell manufacturing method comprising: providing a laminate obtained by stacking a membrane electrode assembly and a separator with an adhesive disposed therein, heating a site of the laminate by subjecting to induction heating by means of passing high-frequency current through coils (101, 102, 103, 104) being disposed on both sides of the to be heated of a laminate in a stacking direction of the membrane electrode assembly and the separator such that current flows in the same direction as directions intersecting the stacking direction. providing a laminate obtained by stacking a membrane electrode assembly and a separator with an adhesive disposed therein, heating a site of the laminate by subjecting to induction heating by means of passing high-frequency current through coils (101, 102, 103, 104) being disposed on both sides of the to be heated of a laminate in a stacking direction of the membrane electrode assembly and the separator such that current flows in the same direction as directions intersecting the stacking direction.
Switching device for switching an electrical load on a supply network, comprising - a rotary cylinder with a lateral surface, which is rotationally moveable about an axis of rotation, - an actuator for rotation of the rotary cylinder, - a first contact bridge accommodated in the rotary cylinder in a rotationally fixed manner, at each end of which a contact is arranged, the contacts being seated in a respective recess in the lateral surface of the rotary cylinder and projecting beyond the lateral surface, and - a receptacle for the rotary cylinder, in which a number of mating contacts (42, 42', 44, 44', 46, 46', 48, 48') are arranged in such a way that by means of a rotary displacement of the rotary cylinder two of the mating contacts (42, 42', 44, 44', 46, 46', 48, 48') are electrically connected by means of the first contact bridge or the mating contacts (42, 42', 44, 44', 46, 46', 48, 48') are electrically disconnected, characterized in - that the actuator has a permanent magnet coupled in a rotationally fixed manner to the rotary cylinder and a coil for generating a magnetic field, which causes the rotary cylinder to rotate, the permanent magnet being disc-shaped and extending in a plane oriented perpendicular to the axis of rotation, and - that the permanent magnet has two, in particular semicircular, sectors, the magnetic polarization of the two sectors being oriented in or respectively counter to a direction running parallel to the axis of rotation. - a rotary cylinder with a lateral surface, which is rotationally moveable about an axis of rotation, - an actuator for rotation of the rotary cylinder, - a first contact bridge accommodated in the rotary cylinder in a rotationally fixed manner, at each end of which a contact is arranged, the contacts being seated in a respective recess in the lateral surface of the rotary cylinder and projecting beyond the lateral surface, and - a receptacle for the rotary cylinder, in which a number of mating contacts (42, 42', 44, 44', 46, 46', 48, 48') are arranged in such a way that by means of a rotary displacement of the rotary cylinder two of the mating contacts (42, 42', 44, 44', 46, 46', 48, 48') are electrically connected by means of the first contact bridge or the mating contacts (42, 42', 44, 44', 46, 46', 48, 48') are electrically disconnected, characterized in - that the actuator has a permanent magnet coupled in a rotationally fixed manner to the rotary cylinder and a coil for generating a magnetic field, which causes the rotary cylinder to rotate, the permanent magnet being disc-shaped and extending in a plane oriented perpendicular to the axis of rotation, and - that the permanent magnet has two, in particular semicircular, sectors, the magnetic polarization of the two sectors being oriented in or respectively counter to a direction running parallel to the axis of rotation.
A single-stage or multi-stage heat press with at least one heating plate, at least one press plate and at least one press pad disposed between the heating plate and the press plate and which includes a carrier material in the form of a metallic fabric and a layer of padding consisting of a FKM rubber material, characterized in that the press pad is introduced into the single-stage or multi-stage heat press in a condition in which the layer of padding includes a partially cross linked or a partially vulcanized FKM rubber material, and in that the final cross linking or final vulcanization of the press pad is carried out in the single-stage or multi-stage heat press between the heating plate and the press plate using pressure and heat in a manner such that the press pad can adapt to the characteristics of the press equipment.
A bobbin for inductive transcutaneous energy and/or data transmission for active medical implants, wherein bobbin windings are implemented as conductors wound around a centre in the form of a spiral, n intersecting points defining a winding plane exist between two adjacent complete windings, wherein n is an odd number > 3, and the position of the wound conductor, as regards the winding plane in front of and behind the intersecting point, alternates relative to the winding plane between a low position below the winding plane and a high position above the winding plane, characterised in that the bobbin comprises an encasement from a bio-compatible material.
A light emitting device comprising: a first semiconductor layer comprising a plurality of vacant space parts; a first electrode on the first semiconductor layer; an active layer on the first semiconductor layer; and a second conductivity type semiconductor layer on the active layer, wherein each of the plurality of vacant space parts has a thickness less than that of the first semiconductor layer, wherein the first semiconductor layer comprises an undoped semiconductor layer and a first conductivity type semiconductor layer on the undoped semiconductor layer, characterized in that the first conductivity type semiconductor layer comprises a first layer and a second layer on the undoped semiconductor layer, and wherein the plurality of vacant space parts and the first electrode are disposed on the first layer of the first conductivity type semiconductor layer. a first semiconductor layer comprising a plurality of vacant space parts; a first electrode on the first semiconductor layer; an active layer on the first semiconductor layer; and a second conductivity type semiconductor layer on the active layer, wherein each of the plurality of vacant space parts has a thickness less than that of the first semiconductor layer, wherein the first semiconductor layer comprises an undoped semiconductor layer and a first conductivity type semiconductor layer on the undoped semiconductor layer, characterized in that the first conductivity type semiconductor layer comprises a first layer and a second layer on the undoped semiconductor layer, and wherein the plurality of vacant space parts and the first electrode are disposed on the first layer of the first conductivity type semiconductor layer.
An isolated domain antibody (dAb) or fragment thereof according to the amino acid sequence of SEQ ID NO: 96, or an amino acid molecule having at least 98% or 99% sequence identity with the amino acid sequence of SEQ ID NO: 96 that binds an epitope on gp120, the exposure of which is induced by binding of gp120 to CD4.
A composition for oral administration to a human or an animal, comprising an oral delivery vehicle comprising an oxalate degrading composition comprising: a) from 3% to 25% of oxalate degrading bacteria, b) from 1.5% to 6% of a disaccharide, c) from 45% to 60% of a maltodextrin, d) from 4% to 6% of an alginate, and e) from 20% to 35% of an oligofructose, for delivery of oxalate-degrading bacteria to the intestines of a human or an animal upon oral administration, wherein the oxalate degrading bacteria is Oxalobacter formigenes. a) from 3% to 25% of oxalate degrading bacteria, b) from 1.5% to 6% of a disaccharide, c) from 45% to 60% of a maltodextrin, d) from 4% to 6% of an alginate, and e) from 20% to 35% of an oligofructose,
Battery element without frame for insertion into a housing of a battery module, - with at least one electrode stack (30, 30'), - wherein the respective electrode stack (30, 30') is surrounded by an outer electrical insulation and this insulation comprises a flexible sealable film (40, 40'), - with a heat conducting element serving for cooling or heating in the form of one or more flat multi-chamber hollow profiles, wherein the respective multi-chamber hollow profile is integrated in the battery element, - wherein the multi-chamber hollow profile has a plurality of chambers arranged adjacent to one another and running parallel to one another in the interior, characterised in that - a wide side surface of the multi-chamber hollow profile is in planar contact with the side surface of at least one insulated electrode stack (30, 30'), and the respective insulated electrode stack (30, 30') is connected to the multi-chamber hollow profile, - with the respective electrode stack (30, 30') being completely surrounded by the outer sealable film (40, 40') or the outer, electrically insulating, sealable film (40, 40') together with the multi-chamber hollow profile enveloping the respective electrode stack (30, 30'). - with at least one electrode stack (30, 30'), - wherein the respective electrode stack (30, 30') is surrounded by an outer electrical insulation and this insulation comprises a flexible sealable film (40, 40'), - with a heat conducting element serving for cooling or heating in the form of one or more flat multi-chamber hollow profiles, wherein the respective multi-chamber hollow profile is integrated in the battery element, - wherein the multi-chamber hollow profile has a plurality of chambers arranged adjacent to one another and running parallel to one another in the interior, characterised in that - a wide side surface of the multi-chamber hollow profile is in planar contact with the side surface of at least one insulated electrode stack (30, 30'), and the respective insulated electrode stack (30, 30') is connected to the multi-chamber hollow profile, - with the respective electrode stack (30, 30') being completely surrounded by the outer sealable film (40, 40') or the outer, electrically insulating, sealable film (40, 40') together with the multi-chamber hollow profile enveloping the respective electrode stack (30, 30').
A tire sensor module comprising: a sheet-like piezoelectric sensor configured to measure deformation of a tire; and a control unit configured to perform computational processing of a measurement result of the piezoelectric sensor, wherein a buffer portion is provided between the piezoelectric sensor and the control unit, wherein the buffer portion includes a soft portion with a Young's modulus smaller than a Young's modulus of the control unit, wherein the soft portion is in contact with the piezoelectric sensor and the control unit. a sheet-like piezoelectric sensor configured to measure deformation of a tire; and a control unit configured to perform computational processing of a measurement result of the piezoelectric sensor, wherein a buffer portion is provided between the piezoelectric sensor and the control unit, wherein the buffer portion includes a soft portion with a Young's modulus smaller than a Young's modulus of the control unit, wherein the soft portion is in contact with the piezoelectric sensor and the control unit.
A data transmission device for coordinated multipoint, CoMP, transmission, wherein the data transmission device is characterized in comprising: a processing module, configured to divide N preconfigured logical lanes into M logical lane groups according to a preset mapping relationship between a logical lane and a physical lane, and map each of the logical lane groups to a different physical lane of the data transmission device, wherein both M and N are positive integers, M is less than N, and M is a quantity of physical lanes of the data transmission device; and a transmission module, configured to transmit, to a receiving device by using each of the physical lanes, a signal configured on each logical lane in a logical lane group corresponding to each of the physical lanes. a processing module, configured to divide N preconfigured logical lanes into M logical lane groups according to a preset mapping relationship between a logical lane and a physical lane, and map each of the logical lane groups to a different physical lane of the data transmission device, wherein both M and N are positive integers, M is less than N, and M is a quantity of physical lanes of the data transmission device; and a transmission module, configured to transmit, to a receiving device by using each of the physical lanes, a signal configured on each logical lane in a logical lane group corresponding to each of the physical lanes.
A touchscreen cover assembly (100; 600; 700) configured to create a sterile interface between a touchscreen and a user, the touchscreen cover assembly comprising: • a sterile frame including a forward frame surface and a rearward frame surface opposite the forward frame surface, the sterile frame defining an interior opening, wherein the sterile frame is configured to be secured to the touchscreen such that the rearward frame surface faces the touchscreen and the interior opening is aligned with a user interface of the touchscreen; and • a sterile cover member including a forward cover portion and a rearward cover portion, wherein the sterile cover member is configured to be secured to the touchscreen by the sterile frame such that the forward cover portion is positioned between the interior opening and the user interface of the touchscreen and the rearward cover portion is positioned over a housing of the touchscreen, characterized in that the sterile frame further includes at least one first removable handling interface, and the sterile cover member further includes at least one second removable handling interface, said first and second removable handling interfaces acting as contact points for the user to position the touchscreen cover assembly at the touchscreen, and being configured to be removed by the user from the touchscreen cover assembly after the sterile frame is secured to the touchscreen. • a sterile frame including a forward frame surface and a rearward frame surface opposite the forward frame surface, the sterile frame defining an interior opening, wherein the sterile frame is configured to be secured to the touchscreen such that the rearward frame surface faces the touchscreen and the interior opening is aligned with a user interface of the touchscreen; and • a sterile cover member including a forward cover portion and a rearward cover portion, wherein the sterile cover member is configured to be secured to the touchscreen by the sterile frame such that the forward cover portion is positioned between the interior opening and the user interface of the touchscreen and the rearward cover portion is positioned over a housing of the touchscreen,