mhurhangee/ep-ind-claims huggingface dataset:
A system for inductively transferring power or data, the system comprising: a portable carry case including: a compartment configured to receive multiple removable target devices (1071, 1072, 1073); at least one coil positioned with respect to the compartment and configured to inductively provide energy to a target coil of one of the target devices (1071, 1072, 1073); and a control circuit configured to coordinate an inductive energy transfer to one of the removable target devices using the coil; and a wired communication link configured to communicate an electrical signal between the coil and the control circuit; wherein the inductive energy transfer includes at least one of a power signal and a data signal; characterized in that the control circuit is configured to: identify active devices that are in or near the carry case and are configured for near field communication with the at least one coil, and to present an indication of the identified active devices to the user using a removable source device or using an ancillary device that is in data communication with the control circuit. a compartment configured to receive multiple removable target devices (1071, 1072, 1073); at least one coil positioned with respect to the compartment and configured to inductively provide energy to a target coil of one of the target devices (1071, 1072, 1073); and a control circuit configured to coordinate an inductive energy transfer to one of the removable target devices using the coil; and a wired communication link configured to communicate an electrical signal between the coil and the control circuit; wherein the inductive energy transfer includes at least one of a power signal and a data signal; characterized in that the control circuit is configured to: identify active devices that are in or near the carry case and are configured for near field communication with the at least one coil, and to present an indication of the identified active devices to the user using a removable source device or using an ancillary device that is in data communication with the control circuit. identify active devices that are in or near the carry case and are configured for near field communication with the at least one coil, and to present an indication of the identified active devices to the user using a removable source device or using an ancillary device that is in data communication with the control circuit.
Effervescent granules or granular material comprising an effervescence-generating compound, at least one gum, characterised in that the gum is insoluble or only slightly soluble in biocompatible solvents other than water and has an adhesive force in the presence of water and is chosen from acacia gum, carrageenans, alginates, pectins, karaya gum, xanthan gum, or chitosan or derivatives thereof, hyaluronic acid, among polymers pullulan or agar, or dextran, or celluloses and derivatives thereof, carbomers, alone or in combination with other gums, and in that said effervescent granules or granular material further comprise a quantity of water from 1.0 to 50 mg per g of granules or granular material.
A method for ascertaining a heat requirement of a building based upon heat consumption data, in which an overall heat loss coefficient ( u A) is determined, characterized in that - the overall heat loss coefficient ( u A) is determined proceeding from a measured or determined building heat loss ( Q RH, Q), and that - the overall heat loss coefficient ( u A) is divided into a time-invariant transmission heat throughput coefficient ( u trans), which considers the heat permeability of the building envelope due to heat conduction, and a time-variant ventilation heat loss coefficient ( u inf), which considers time-dependent ventilation losses, which comprise the time-dependent ventilation behavior of the user as well as a wind load that changes over time or some other time-variant, infiltration-induced disturbance variables, wherein the transmission heat throughput coefficient ( u trans) is calculated using the overall heat loss coefficient (min( u A)) and a minimal estimated ventilation heat loss coefficient (min( u inf)), and wherein the ventilation heat loss coefficient ( u inf) is calculated from the overall heat loss coefficient ( u A) and the transmission heat throughput coefficient ( u trans). - the overall heat loss coefficient ( u A) is determined proceeding from a measured or determined building heat loss ( Q RH, Q), and that - the overall heat loss coefficient ( u A) is divided into a time-invariant transmission heat throughput coefficient ( u trans), which considers the heat permeability of the building envelope due to heat conduction, and a time-variant ventilation heat loss coefficient ( u inf), which considers time-dependent ventilation losses, which comprise the time-dependent ventilation behavior of the user as well as a wind load that changes over time or some other time-variant, infiltration-induced disturbance variables,
A method for manufacturing a composite tube (101, 201) having at least one multi-layered portion with an annular outer layer (102, 202) of a first alloy and an annular inner layer (103, 203) of a second alloy, the method comprising the steps of: - providing an annular base component of the second alloy, wherein the annular base component has a central through-hole extending along a longitudinal axis of the annular base component, and wherein the annular base component has an externally threaded section, - providing an annular outer component of the first alloy, wherein the annular outer component has an internally threaded section configured to engage with the externally threaded section of the annular base component, - forming a tubular work piece by mounting the annular outer component around the annular base component such that the internally threaded section of the outer component is in engagement with the externally threaded section of the annular base component, forming a mechanical interlock between the threaded sections (302, 402), - hot working the work piece, so that on one hand a metallic bond is formed between the threaded sections (302, 402) of the annular outer component and the annular base component while the mechanical interlock is maintained, and so that on the other hand the work piece is elongated and an outer diameter of the tubular work piece is reduced, thus forming a composite tube (101, 201). - providing an annular base component of the second alloy, wherein the annular base component has a central through-hole extending along a longitudinal axis of the annular base component, and wherein the annular base component has an externally threaded section, - providing an annular outer component of the first alloy, wherein the annular outer component has an internally threaded section configured to engage with the externally threaded section of the annular base component, - forming a tubular work piece by mounting the annular outer component around the annular base component such that the internally threaded section of the outer component is in engagement with the externally threaded section of the annular base component, forming a mechanical interlock between the threaded sections (302, 402), - hot working the work piece, so that on one hand a metallic bond is formed between the threaded sections (302, 402) of the annular outer component and the annular base component while the mechanical interlock is maintained, and so that on the other hand the work piece is elongated and an outer diameter of the tubular work piece is reduced, thus forming a composite tube (101, 201).
Method (200, 300) for parking a motor vehicle in a parking area, which comprises a first region and a second region, which are each designed for the parking of a motor vehicle, wherein a usage authorization for the second region is time-limited, and wherein the method (200, 300) comprises the following steps: - determining (210, 215) that there is space in the first region for parking in that region the motor vehicle parked in the second region; and - re-parking the motor vehicle from the second region into the first region in an automated manner, characterized in that a usage authorization for a second region is pre-emptively requested or returned and wherein a probable requirement for the size of the second region is predicted on the basis of historical data and, depending on the predicted requirement, an increase in the size of the second region is requested. - determining (210, 215) that there is space in the first region for parking in that region the motor vehicle parked in the second region; and - re-parking the motor vehicle from the second region into the first region in an automated manner, characterized in that a usage authorization for a second region is pre-emptively requested or returned and wherein a probable requirement for the size of the second region is predicted on the basis of historical data and, depending on the predicted requirement, an increase in the size of the second region is requested.
A turbine blade comprising: an airfoil including opposite pressure and suction sidewalls (20,22) extending longitudinally in span from root to tip and laterally in chord between leading and trailing edges (28,30); said sidewalls (20,22) being transversely spaced apart to define an internal cooling circuit having a plurality of longitudinal flow passages separated in chord by corresponding partitions; said airfoil further includes a tip cap recessed inwardly from said airfoil tip to define an exposed tip well, and having an internal dome surrounding a dust hole extending in flow communication from said cooling circuit to said well; and said dome is inclined inwardly chordally between said leading and trailing edges (28,30), and is coextensive with at least one of said passages; characterised in that: said dome is also inclined inwardly transversely between said sidewalls (20, 22). an airfoil including opposite pressure and suction sidewalls (20,22) extending longitudinally in span from root to tip and laterally in chord between leading and trailing edges (28,30); said sidewalls (20,22) being transversely spaced apart to define an internal cooling circuit having a plurality of longitudinal flow passages separated in chord by corresponding partitions; said airfoil further includes a tip cap recessed inwardly from said airfoil tip to define an exposed tip well, and having an internal dome surrounding a dust hole extending in flow communication from said cooling circuit to said well; and said dome is inclined inwardly chordally between said leading and trailing edges (28,30), and is coextensive with at least one of said passages; characterised in that: said dome is also inclined inwardly transversely between said sidewalls (20, 22). said dome is also inclined inwardly transversely between said sidewalls (20, 22).
A portable aspiration pump unit for the aspiration of bodily fluids and/or air, wherein the aspiration pump unit has a pump assembly housing with a pump assembly and at least one fluid collection reservoir detachably connected to this pump assembly housing, wherein the pump assembly housing has a front wall, a rear wall, and a side wall arranged between these two walls (10, 11), wherein an adapter for a patient's tube is present, characterized in that the adapter can be introduced into a wall (10, 11, 16) of the pump assembly housing and that the adapter can be connected to the fluid collection reservoir.
Bus bar for holding a contact wire with a longitudinally extended, one-piece profile slotted in the longitudinal direction with a transverse carrier from which two spring-elastic tensioning arms (4, 5) project substantially vertically and each tensioning arm (4, 5) is provided with a spring-elastic clamping arm (7, 8) that runs at an acute angle to an axis of symmetry, wherein a contact wire can be clamped in between opposing tips (9, 10) of the clamping arm (7, 8), wherein the clamping arms (7, 8) comprise bores (26, 27) in the vicinity of their tips (9, 10), characterized in that protective walls (30, 31) are attached on the clamping arms (7, 8) which walls project into the profile of the bus bar and form, with the clamping arms (7, 8), a conduit (36, 37), wherein the bores (26, 27) directly border side walls (32, 33) of the protective walls (31, 32).
A chip scale package semiconductor device, comprising; a semiconductor die having a first major surface and an opposing second major surface, the semiconductor die comprising at least two terminals arranged on the second major surface; a carrier comprising a first major surface and an opposing second major surface, wherein the first major surface of the semiconductor die is mounted on the opposing second major surface of the carrier; and a moulding material partially encapsulating the semiconductor die and the carrier, wherein the first major surface of the carrier extends and is exposed through the moulding material, and the at least two terminals are exposed through the moulding material on a second side of the device, wherein the opposing second major surface of the carrier is arranged as a recess in the carrier, wherein the recess is arranged to mountably receive the semiconductor die, and wherein an adhesive layer is arranged in the recess for mounting the semiconductor die to the carrier. a semiconductor die having a first major surface and an opposing second major surface, the semiconductor die comprising at least two terminals arranged on the second major surface; a carrier comprising a first major surface and an opposing second major surface, wherein the first major surface of the semiconductor die is mounted on the opposing second major surface of the carrier; and a moulding material partially encapsulating the semiconductor die and the carrier, wherein the first major surface of the carrier extends and is exposed through the moulding material, and the at least two terminals are exposed through the moulding material on a second side of the device, wherein the opposing second major surface of the carrier is arranged as a recess in the carrier, wherein the recess is arranged to mountably receive the semiconductor die, and wherein an adhesive layer is arranged in the recess for mounting the semiconductor die to the carrier.
A holding device system for holding an abutment blank, comprising: a two-part holding frame, including: a main frame defining an opening; a blank holder received in the opening and coupled to the main frame, the blank holder defining at least one fixation bore, wherein the two-part holding frame defines a processing space and a fixation space, the processing space defined above a top surface of the blank holder and inside the opening of the main frame and the fixation space defined below a bottom surface of the blank holder and inside the opening of the main frame; and at least one fixation element having a head and a threaded shaft with threads configured to extend through the at least one fixation bore and couple with the abutment blank, wherein, when the at least one fixation element is engaged with the blank holder, the head is positioned within the fixation space and the at least one fixation element can transition between a first floating position in which the fixation element does not engage with the abutment blank and a second engaged position. a two-part holding frame, including: a main frame defining an opening; a blank holder received in the opening and coupled to the main frame, the blank holder defining at least one fixation bore, wherein the two-part holding frame defines a processing space and a fixation space, the processing space defined above a top surface of the blank holder and inside the opening of the main frame and the fixation space defined below a bottom surface of the blank holder and inside the opening of the main frame; and a main frame defining an opening; a blank holder received in the opening and coupled to the main frame, the blank holder defining at least one fixation bore, wherein the two-part holding frame defines a processing space and a fixation space, the processing space defined above a top surface of the blank holder and inside the opening of the main frame and the fixation space defined below a bottom surface of the blank holder and inside the opening of the main frame; and at least one fixation element having a head and a threaded shaft with threads configured to extend through the at least one fixation bore and couple with the abutment blank, wherein, when the at least one fixation element is engaged with the blank holder, the head is positioned within the fixation space and the at least one fixation element can transition between a first floating position in which the fixation element does not engage with the abutment blank and a second engaged position.
Apparatus for sinking a vertical bore, in particular a shaft, an extraction bore in a deposit body, or a foundation bore in the ground, with at least one excavating tool for excavating material at a bottom of the bore, with at least one conveying means, which is arranged in the active region of the at least one excavating tool, for discharging material excavated at the bottom out of the bore, with a machine frame on which at least two bracing elements (14, 15) for locking the apparatus in the bore during drilling are arranged, with at least one means for vertically raising and lowering the machine frame in the bore, and with at least one drive for rotating the excavating tool, characterized in that the means for vertically raising and lowering the machine frame in the bore is a strand-jack system with at least one jack unit with at least one cylinder and at least one strand or one strand bundle per jack unit, said strand/strand bundle being connected to the machine frame.
A polyethylene blend consisting essentially of three ethylene homo- or copolymer fractions, and having distinct molecular weights: A) 10 to 50 wt% of a low molecular weight homo- or copolymer fraction with a weight average molecular weight M w below 40 kg/mol; B) 18 to 60 wt% of a high molecular weight homo- or copolymer fraction with a weight average molecular weight M w above 250 kg/mol and C) 10 to 70 wt% of a medium molecular weight homo- or copolymer fraction with a weight average molecular weight M w in the range of 100 to 200 kg/mol; whereby the polyethylene blend has a single melting peak, as determined by differential scanning calorimetry. A) 10 to 50 wt% of a low molecular weight homo- or copolymer fraction with a weight average molecular weight M w below 40 kg/mol; B) 18 to 60 wt% of a high molecular weight homo- or copolymer fraction with a weight average molecular weight M w above 250 kg/mol and C) 10 to 70 wt% of a medium molecular weight homo- or copolymer fraction with a weight average molecular weight M w in the range of 100 to 200 kg/mol; whereby the polyethylene blend has a single melting peak, as determined by differential scanning calorimetry.
A method of making a physical object by additive manufacturing, the method comprising steps of (a) providing a light hardenable material, wherein the light hardenable material is liquid or pasty; (b) building up the object by successively hardening portions of the light hardenable material by irradiating the portions with light; (c) coating at least a part of the object with a flowable coating; and (d) irradiating the coated object with light and thereby post-hardening any light hardenable material. characterized in that the method further comprising a step of cleaning the object from the coating by moving the object and thereby generating a mass inertial force in the coating, wherein in the step of cleaning the object from the coating, the moving of the object is a rotation of the object. (a) providing a light hardenable material, wherein the light hardenable material is liquid or pasty; (b) building up the object by successively hardening portions of the light hardenable material by irradiating the portions with light; (c) coating at least a part of the object with a flowable coating; and (d) irradiating the coated object with light and thereby post-hardening any light hardenable material. the method further comprising a step of cleaning the object from the coating by moving the object and thereby generating a mass inertial force in the coating, wherein in the step of cleaning the object from the coating, the moving of the object is a rotation of the object.
A manifold assembly for distribution of a cooling fluid configured for use with a light source, the manifold assembly comprising: (a) a fluid manifold for providing a cooling fluid to a lamp head assembly of the light source; (b) at least one sensor for sensing at least one characteristic of the cooling fluid in the fluid manifold; (c) a microprocessor for receiving information related to the at least one characteristic from the at least one sensor, wherein the microprocessor is included on a board included in the manifold assembly, and (d) further comprising an EEPROM on the board in communication with the microprocessor, the EEPROM including at least one of (i) read only data related to the at least one sensor, and (ii) data written by the microprocessor related to operation of the at least one sensor. (a) a fluid manifold for providing a cooling fluid to a lamp head assembly of the light source; (b) at least one sensor for sensing at least one characteristic of the cooling fluid in the fluid manifold; (c) a microprocessor for receiving information related to the at least one characteristic from the at least one sensor, wherein the microprocessor is included on a board included in the manifold assembly, and (d) further comprising an EEPROM on the board in communication with the microprocessor, the EEPROM including at least one of (i) read only data related to the at least one sensor, and (ii) data written by the microprocessor related to operation of the at least one sensor.
An in vitro process for the manufacture of a population of human allogeneic liver-derived progenitor cells (HALPC), comprising the steps of: (a) providing a suspension of primary liver cells obtained from a human liver; (b) culturing the primary liver cells comprised in said suspension until the emergence of a population of cells having an elongated shape and mesenchymal morphology; (c) culturing the cell population emerged in step (b) under conditions that cause its expansion; (d) harvesting the expanded cell population obtained in step (c); wherein said cells of the expanded cell population obtained in step (c) are human allogeneic liver-derived progenitor cells (HALPC) that express at least one mesenchymal marker selected from CD90, CD44, CD73, CD13, CD140b, CD29, vimentin and alpha-smooth muscle actin (ASMA), and optionally express at least one hepatic marker and/or exhibit a liver-specific activity; and wherein culturing conditions of step (b) include the use of a xeno- and serum-free culture medium comprising purified native or recombinant human serum albumin. (a) providing a suspension of primary liver cells obtained from a human liver; (b) culturing the primary liver cells comprised in said suspension until the emergence of a population of cells having an elongated shape and mesenchymal morphology; (c) culturing the cell population emerged in step (b) under conditions that cause its expansion; (d) harvesting the expanded cell population obtained in step (c);
A guide wall for traffic routes having concrete wall elements, which have tension straps extending in the interior, the ends of which are provided with end-side engagement elements, in which coupling traction members are insertable for the friction-locked connection of respective adjacent concrete wall elements, wherein the concrete wall elements are connected by at least one clamp element, which is preferably substantially L-shaped or U-shaped, characterized in that the clamp elements have transverse webs in the region between the concrete wall elements.