mhurhangee/ep-ind-claims huggingface dataset:
A dental model as a working and control model for making dentures, consisting of a base model with a base body and having formed thereon model gingiva and model teeth as well as a region, in which a model implant of a tooth or of a group of teeth is to be formed, wherein in the region in which the model implant of the tooth or of the group of teeth is to be formed, a recess is provided, into which a plate with a gingiva mask is detachably fitted, wherein a single- or multi-part model implant plug (2a, 2b) is detachably fitted in a guide hole in the region of the recess, the model implant plug (2a, 2b) holding an imitation of an implant screw, at which an abutment can be fastened, on which the model implant, for instance a crown, can be formed, the plate and the gingiva mask comprising a recess for passing-through the model implant and fitting the model implant or an abutment thereof on the model implant plug (2a/2b).
A compound comprising the formula IIIA wherein Z 1, Z 2 and Z 3 are hydrogen, and Y is an aryl group having the formula wherein the aryl group is substituted or unsubstituted; or wherein Z 1 and Z 2 are OH, Z 3 is hydrogen, and Y is an aryl group having the formula wherein the aryl group is substituted or unsubstituted.
A kit to prepare an hemostatic flowable comprising: - a hemostatic powder having a composition comprising: ∘ non-cross-linked collagen of the fibrillar type comprising a content of fibrous collagen and/or fibrillar collagen of at least 70% by weight relative to the total weight of the collagen; ∘ at least one monosaccharide; and ∘ at least one glycosaminoglycan; - a saline solution to be mixed with the hemostatic powder in order to form the hemostatic flowable. - a hemostatic powder having a composition comprising: ∘ non-cross-linked collagen of the fibrillar type comprising a content of fibrous collagen and/or fibrillar collagen of at least 70% by weight relative to the total weight of the collagen; ∘ at least one monosaccharide; and ∘ at least one glycosaminoglycan; ∘ non-cross-linked collagen of the fibrillar type comprising a content of fibrous collagen and/or fibrillar collagen of at least 70% by weight relative to the total weight of the collagen; ∘ at least one monosaccharide; and ∘ at least one glycosaminoglycan; - a saline solution to be mixed with the hemostatic powder in order to form the hemostatic flowable.
Cutting wheel system for a dredging device, comprising a cutting wheel and a cutting wheel drive system, whereby the cutting wheel comprises at least two cutting element rings, which rings are positioned at a distance from each other in parallel planes whereby the cutting element rings have coaxial rotation axes (12, 13), whereby a suction tube can be positioned between the two cutting element rings, whereby the cutting wheel drive system is arranged to rotate the cutting wheel about the coaxial rotation axes, wherein the cutting wheel system further comprises connecting arms for mounting the cutting wheel in a rotatable manner to the dredging device, characterized in that the connecting arms are moveable with respect to each other between a closed position wherein the connecting arms engage the cutting wheel from opposite sides of the cutting wheel, and an open position wherein the cutting wheel is released from the connecting arms, and further comprising a retaining device which is arranged to keep the cutting wheel in place when the connecting arms are in the open position.
A motor-driven supercharger comprising: a turbine shaft having a turbine impeller in one end thereof; a compressor impeller rotationally driven by the turbine shaft; a bearing housing supporting the rotatable turbine shaft; a motor stator fixed within the bearing housing; and a motor rotor rotationally driven by the motor stator, wherein the motor stator has a stator iron core, a stator winding, characterized by a mold member embedding the stator iron core and the stator winding therein and having a high coefficient of thermal conductivity, and further comprising an outer sleeve closely attached to an outer peripheral surface of the mold member and to an inner surface of the bearing housing, wherein the outer sleeve forms a liquid tight water cooling jacket between the outer sleeve and the bearing housing. a turbine shaft having a turbine impeller in one end thereof; a compressor impeller rotationally driven by the turbine shaft; a bearing housing supporting the rotatable turbine shaft; a motor stator fixed within the bearing housing; and a motor rotor rotationally driven by the motor stator, wherein the motor stator has a stator iron core, a stator winding, characterized by a mold member embedding the stator iron core and the stator winding therein and having a high coefficient of thermal conductivity, and further comprising an outer sleeve closely attached to an outer peripheral surface of the mold member and to an inner surface of the bearing housing, wherein the outer sleeve forms a liquid tight water cooling jacket between the outer sleeve and the bearing housing.
An apparatus comprising: a transistor (330.1) comprising a substrate, a gate, a source, and a drain, the drain coupled to a signal path and the substrate coupled to a node; a DC voltage source configured to provide a negative bias voltage; and a negative rectifier configured to provide a negative voltage (VROUT) based on a voltage (Vm) on the signal path, wherein the negative bias voltage is configured to be superimposed on the negative voltage to generate a voltage more negative than the negative bias voltage, the voltage being applied to the substrate via the node. a transistor (330.1) comprising a substrate, a gate, a source, and a drain, the drain coupled to a signal path and the substrate coupled to a node; a DC voltage source configured to provide a negative bias voltage; and a negative rectifier configured to provide a negative voltage (VROUT) based on a voltage (Vm) on the signal path, wherein the negative bias voltage is configured to be superimposed on the negative voltage to generate a voltage more negative than the negative bias voltage, the voltage being applied to the substrate via the node.
A wind turbine, comprising: a tower; a nacelle supported by the tower; a rotor comprising a hub rotatably mounted to the nacelle and at least one blade rotatably mounted to the hub; and a bearing (28, 30) positioned between the tower and nacelle or between the hub and blade, the bearing having first and second rings (36, 38) movable relative to each other, the first and second rings each being secured to one of the tower, nacelle, hub, or blade, characterised by a sealing system for containing lubricant, comprising: an absorbent element secured to the first ring, the absorbent element comprising an oil-absorbent material; and a contact member secured to the absorbent element, the contact member abutting at least one of the second ring and the component to which the second ring is secured, the contact member comprising a non-absorbent material. a tower; a nacelle supported by the tower; a rotor comprising a hub rotatably mounted to the nacelle and at least one blade rotatably mounted to the hub; and a bearing (28, 30) positioned between the tower and nacelle or between the hub and blade, the bearing having first and second rings (36, 38) movable relative to each other, the first and second rings each being secured to one of the tower, nacelle, hub, or blade, characterised by a sealing system for containing lubricant, comprising: an absorbent element secured to the first ring, the absorbent element comprising an oil-absorbent material; and a contact member secured to the absorbent element, the contact member abutting at least one of the second ring and the component to which the second ring is secured, the contact member comprising a non-absorbent material. an absorbent element secured to the first ring, the absorbent element comprising an oil-absorbent material; and a contact member secured to the absorbent element, the contact member abutting at least one of the second ring and the component to which the second ring is secured, the contact member comprising a non-absorbent material.
A laser beam combining device comprising: an emission optical system that emits a plurality of circular laser beams propagated coaxially and having mutually different wavelengths; and emitted at mutually different divergences; and a diffractive optical element that diffracts the plurality of circular laser beams in accordance with the wavelengths of the circular laser beams, such that local diffraction angles of diffracted light of the plurality of circular laser beams incident at mutually different local incidence angles corresponding to the mutually different emitted divergences are equal to each other, characterized in that the diffractive optical element includes annular regions that are concentric. an emission optical system that emits a plurality of circular laser beams propagated coaxially and having mutually different wavelengths; and emitted at mutually different divergences; and a diffractive optical element that diffracts the plurality of circular laser beams in accordance with the wavelengths of the circular laser beams, such that local diffraction angles of diffracted light of the plurality of circular laser beams incident at mutually different local incidence angles corresponding to the mutually different emitted divergences are equal to each other, characterized in that the diffractive optical element includes annular regions that are concentric.
A conveying belt for an image forming device comprising: a cylindrical base layer; and a surface layer that is formed on the outer peripheral surface of the base layer, wherein the base layer contains at least one kind of polyimide or polyamide-imide, the base layer has an elastic modulus of equal to or greater than 3 GPa and equal to or less than 7 GPa, the surface layer is configured as a cured object from a resin composition that contains a fluororesin having a hydroxy group, an isocyanate curing agent, and a silicone copolymer, the silicone copolymer is a copolymer containing a silicone unit having a siloxane skeleton and another kind of unit not having a siloxane skeleton and has a hydroxy group, characterized in that the silicone copolymer contains siloxane units in a proportion of equal to or greater than 95 mol% and less than 100 mol%, and the silicone copolymer content in the resin composition is equal to or greater than 1 part by mass and equal to or less than 5 parts by mass relative to a total of 100 parts by mass of the fluororesin and the isocyanate curing agent. wherein the base layer contains at least one kind of polyimide or polyamide-imide, the base layer has an elastic modulus of equal to or greater than 3 GPa and equal to or less than 7 GPa, the surface layer is configured as a cured object from a resin composition that contains a fluororesin having a hydroxy group, an isocyanate curing agent, and a silicone copolymer, the silicone copolymer is a copolymer containing a silicone unit having a siloxane skeleton and another kind of unit not having a siloxane skeleton and has a hydroxy group, characterized in that the silicone copolymer contains siloxane units in a proportion of equal to or greater than 95 mol% and less than 100 mol%, and the silicone copolymer content in the resin composition is equal to or greater than 1 part by mass and equal to or less than 5 parts by mass relative to a total of 100 parts by mass of the fluororesin and the isocyanate curing agent.
A method of (i) diagnosing a renal dysfunction or disease and/or renal complications of a disease in a subject, or (ii) diagnosing or monitoring kidney function in a subject, or (iii) diagnosing kidney disease or renal complications prior to the onset of kidney degeneration in a subject, or (iv) predicting or monitoring the risk of an adverse event in a subject with kidney disease wherein said adverse event is selected from the group comprising worsening of kidney dysfunction including kidney failure, loss of kidney function, development of related comorbid condition, end-stage kidney disease, or death, or (v) predicting or monitoring the success of a therapy or intervention in a subject with kidney disease, the method comprising: (a) measuring a level or amount of prouroguanylin (proUGN) in a biological sample, (b) comparing the measurement to a control reference range or threshold value, (c) determining whether the measurement of proUGN is above the control reference range or threshold value. (i) diagnosing a renal dysfunction or disease and/or renal complications of a disease in a subject, or (ii) diagnosing or monitoring kidney function in a subject, or (iii) diagnosing kidney disease or renal complications prior to the onset of kidney degeneration in a subject, or (iv) predicting or monitoring the risk of an adverse event in a subject with kidney disease wherein said adverse event is selected from the group comprising worsening of kidney dysfunction including kidney failure, loss of kidney function, development of related comorbid condition, end-stage kidney disease, or death, or (v) predicting or monitoring the success of a therapy or intervention in a subject with kidney disease, the method comprising: (a) measuring a level or amount of prouroguanylin (proUGN) in a biological sample, (b) comparing the measurement to a control reference range or threshold value, (c) determining whether the measurement of proUGN is above the control reference range or threshold value. (a) measuring a level or amount of prouroguanylin (proUGN) in a biological sample, (b) comparing the measurement to a control reference range or threshold value, (c) determining whether the measurement of proUGN is above the control reference range or threshold value.
A method for wireless communication, comprising: receiving, by a wireless user equipment device that is one of a plurality of wireless user equipment devices, user equipment grouping parameters (105A-D) for group assignment, which configure how the plurality of wireless user equipment devices are to be organized into groups (103A-D) associated with different wake-up signals to be received from an access node at predetermined intervals before different transmissions are received from the access node, to indicate to the wireless user equipment device when to monitor a control channel in response to receiving a wake-up signal, prior to monitoring the different transmissions received from the access node; wherein the assignment of wireless user equipment devices to each group is based on the user equipment grouping parameters; and monitoring, by the wireless user equipment device, a control channel in response to receiving the wake-up signal, based on the grouping of the wireless user equipment device to one of the groups associated with the wake-up signal; wherein the user equipment grouping parameters comprise a relative number of wireless devices per each group, wherein v i is a parameter value for group i, a relative distribution of the wireless user equipment devices among K groups is proportional to the user equipment grouping parameters, and a group index for the wireless user equipment devices is determined as UE group index = { 0, 0 < I ≤ V 0 i V i − 1 < I ≤ V i, 1 ≤ i ≤ K − 1 where I = UE ID mod V K − 1 and V i = ∑ j = 0 i v j. receiving, by a wireless user equipment device that is one of a plurality of wireless user equipment devices, user equipment grouping parameters (105A-D) for group assignment, which configure how the plurality of wireless user equipment devices are to be organized into groups (103A-D) associated with different wake-up signals to be received from an access node at predetermined intervals before different transmissions are received from the access node, to indicate to the wireless user equipment device when to monitor a control channel in response to receiving a wake-up signal, prior to monitoring the different transmissions received from the access node; wherein the assignment of wireless user equipment devices to each group is based on the user equipment grouping parameters; and monitoring, by the wireless user equipment device, a control channel in response to receiving the wake-up signal, based on the grouping of the wireless user equipment device to one of the groups associated with the wake-up signal; wherein the user equipment grouping parameters comprise a relative number of wireless devices per each group, wherein v i is a parameter value for group i, a relative distribution of the wireless user equipment devices among K groups is proportional to the user equipment grouping parameters, and a group index for the wireless user equipment devices is determined as UE group index = { 0, 0 < I ≤ V 0 i V i − 1 < I ≤ V i, 1 ≤ i ≤ K − 1 where I = UE ID mod V K − 1 and V i = ∑ j = 0 i v j.
A data transmitting method, being applied to a target bluetooth earphone included in a data transmitting system, the data transmitting system comprising a mobile terminal and a plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500), characterized by the mobile terminal and the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500) being connected in sequence thereby forming a connection loop, wherein each of the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500) has two transmission paths for transmitting audio data to the mobile terminal along the connection loop in two directions, respectively, and wherein the target bluetooth earphone is one of the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500), the method comprising: the target bluetooth earphone receiving (S110, S210) audio data; the target bluetooth earphone determining (S120, S220) a target device, wherein there are two devices adjacent to the target bluetooth earphone in the connection loop, the target device is one of the two devices, the target device is one of the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500) or the mobile terminal, and the target device is on the transmission path with the smaller number of bluetooth earphones; and the target bluetooth earphone transmitting (S130, S230) the audio data to the target device. the target bluetooth earphone receiving (S110, S210) audio data; the target bluetooth earphone determining (S120, S220) a target device, wherein there are two devices adjacent to the target bluetooth earphone in the connection loop, the target device is one of the two devices, the target device is one of the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500) or the mobile terminal, and the target device is on the transmission path with the smaller number of bluetooth earphones; and the target bluetooth earphone transmitting (S130, S230) the audio data to the target device.
An S-shaped connector for connecting a faucet to a water supply pipe with • an S-shaped piece, which has a 3/4" external thread for connecting with a faucet and an internal thread, wherein a longitudinal axis of the 3/4" external thread and a longitudinal axis of the internal thread are arranged parallel and at a distance (d) from each other and • a tube piece, which has a water-supply-pipe-side section with a 1/2" external thread for connecting with a water supply pipe and an S-shaped-piece-side section, which has an external thread with a length of at least 30 mm, which can be screwed into the internal thread of the S-shaped piece. • an S-shaped piece, which has a 3/4" external thread for connecting with a faucet and an internal thread, wherein a longitudinal axis of the 3/4" external thread and a longitudinal axis of the internal thread are arranged parallel and at a distance (d) from each other and • a tube piece, which has a water-supply-pipe-side section with a 1/2" external thread for connecting with a water supply pipe and an S-shaped-piece-side section, which has an external thread with a length of at least 30 mm, which can be screwed into the internal thread of the S-shaped piece.
Integrated process for producing hydrogen comprising the following steps: a) production of algal biomass by means of a photobioreactor wherein microalgae are fed with water and carbon dioxide and irradiated with light radiation; b) anaerobic digestion for obtaining biomethane and nitrogen digestates by means of an anaerobic digester, wherein said anaerobic digestion takes place starting from said algal biomass obtained in said step a); c) steam reforming for obtaining hydrogen, carbon dioxide and heat starting from steam, oxygen and said biomethane obtained in said step b), and subsequent separation of carbon dioxide; and d) alkaline electrolysis of water for obtaining hydrogen and oxygen, by means of electrolysers, starting from water heated by the heat obtained in step c) and electric power, wherein the carbon dioxide in said step a) comes from step c) and the oxygen in said step c) comes from step d). a) production of algal biomass by means of a photobioreactor wherein microalgae are fed with water and carbon dioxide and irradiated with light radiation; b) anaerobic digestion for obtaining biomethane and nitrogen digestates by means of an anaerobic digester, wherein said anaerobic digestion takes place starting from said algal biomass obtained in said step a); c) steam reforming for obtaining hydrogen, carbon dioxide and heat starting from steam, oxygen and said biomethane obtained in said step b), and subsequent separation of carbon dioxide; and d) alkaline electrolysis of water for obtaining hydrogen and oxygen, by means of electrolysers, starting from water heated by the heat obtained in step c) and electric power,
Fuel injection system with a fuel distributor which has a distributor tube, and with at least one holder which serves for fastening the fuel distributor to an add-on structure with at least one elastically deformable damping element (20, 21, 22), wherein a first half shell and a second half shell are provided, wherein, for fastening the tubular component to the add-on structure, the first half shell and the second half shell can be joined to each other in such a manner that the first half shell and the second half shell surround the tubular component and hold the tubular component by means of the elastic damping elements (20, 22), wherein at least one bore for the introduction of a screw is provided in each of the two half shells (15, 16) and the screw is screwable into a threaded bore in the add-on structure in order to fasten the fuel distributor to the add-on structure, characterized in that the elastically deformable damping element is injection moulded onto a holding region of the first half shell or is placed into the holding region of the first half shell, in that an elastically deformable damping element is injection moulded onto a holding region of the second half shell or placed into the holding region of the second half shell, and in that the first half shell and the second half shell are connected to each other by means of a film hinge.